Air Pollution Controlled Prototype Modelling of Electrostatic Precipitator for Small Scale Industries

Abstract

Electrostatic precipitator (ESP) is efficient pollution control equipment. This paper aims in designing of a low cost and portable ESP for small scale industries for controlling the pollution. A prototype of two stage ESP is developed with low cost, less weight and easily available materials. Which can be used in boilers, hospitals and cooking purposes. A pollution test is conducted on the prototype for verifying NO₂ and CO₂ emission by installing this ESP and verified.

Keywords

• Electrostatic precipitator,prototype Modelling,Small scale industries application

References

1. [1] Moorthy, C. Ganesa, G. UdhayaSankar, and G. RajKumar. "A Design for Charging Section of Electrostatic Precipitators by Applying a Law for Electric Field Waves." Imperial Journal of Interdisciplinary Research 3.6 (2017): 842-844.
2. [2] Ayturan, Yasin Akın, Ali Öztürk, and Zeynep Cansu Ayturan. "Modelling of PM10 Pollution in Karatay District of Konya with Artificial Neural Networks." Journal of International Environmental Application and Science 12.3 (2017): 256-263.
3. [3] Parker, Ken R. "Why an electrostatic precipitator?." Applied Electrostatic Precipitation. Springer, Dordrecht, 1997. 1-10.
4. [4] McDonald, Jack Raymond, and Alan H. Dean. "Electrostatic precipitator manual." (1982).
5. [5] Jedrusik, Maria, ArkadiuszSwierczok, and RyszardTeisseyre. "Experimental study of fly ash precipitation in a model electrostatic precipitator with discharge electrodes of different design." Powder Technology 135 (2003): 295-301.
6. [6] Mainelis, Gediminas, et al. "Design and collection efficiency of a new electrostatic precipitator for bioaerosol collection." Aerosol Science & Technology 36.11 (2002): 1073-1085.
7. [7] Rothenberg, Larry, Alan Viosca, and Igor Krichtafovitch. "Electrostatic air filter design and assembly." U.S. Patent Application No. 15/653,440.
8. [8] Phillips, James R., et al. "Design of a Second Generation Electrostatic Precipitator for Martian Atmospheric Dust Mitigation of ISRU Intakes." 2018 AIAA SPACE and Astronautics Forum and Exposition. 2018.

9. [9] Sander, Sören, Steffen Gawor, and UdoFritsching. "Separating polydisperse particles using electrostatic precipitators with wire and spiked-wire discharge electrode design." Particuology 38 (2018): 10-17.
10. [10] Cheremisinoff, PaulN. Air pollution control and design for industry. Routledge, 2018.
11. [11] Khaled, Usama, et al. "Experimental and analytical study on the performance of novel design of efficient two-stage electrostatic precipitator." IET Science, Measurement & Technology 12.4 (2018): 486-491.
12. [12] Arif, S., et al. "The influence of design parameters on the occurrence of shielding in multi-electrode ESPs and its effect on performance." Journal of Electrostatics 93 (2018): 17-30.
13. [13] Bacher, Christian, et al. "Discharge electrode geometry and energy efficiency in a one-stage wire–tube electrostatic precipitator operating at high concentrations of submicron liquid aerosol." Environmental technology (2018): 1-13.
14. [14] Ayturan, Yasin Akın, Zeynep Cansu Ayturan, and Hüseyin Oktay Altun. "Air pollution modelling with deep learning: a review." International Journal of Environmental Pollution and Environmental Modelling 1.3 (2018): 58-62.
15. [15] Moorthy, C. Ganesa, G. Udhaya Sankar, and Graj Kumar. "What Is The Polarity Of An Electromagnetic Wave?." Indian J. Sci. Res 13.1 (2017): 255-256.
16. [16] Moorthy, Ganesa. "Application of Raman Spectroscopy to Pollution Control Using Wave Numbers." International Journal of Environmental Pollution and Environmental Modelling 2.1 (2019): 44-47.
17. [17] Udhaya Sankar, G., C. Ganesa Moorthy, and G. RajKumar. "Smart Storage Systems for Electric Vehicles–A Review." Smart Science 7.1 (2019): 1-15.
18. [18] Moorthy, C. Ganesa, G. Udhaya Sankar, and G. RajKumar. "Temperature of Black Holes and Minimum Wavelength of Radio Waves." International Journal of Scientific Research in Science, Engineering and Technology 4.4 (2018): 1104-1107.
19. [19] Moorthy, C. Ganesa, G. Udhaya Sankar, and G. Rajkumar. "Two Expressions for Electrostatic Forces and For Magnetic Forces to Classify Electromagnetic Waves." Imperial Journal of Interdisciplinary Research 3.10 (2017): 706-709.
20. [20] Vallikkodi, M., G. Udhaya Sankar, and P. Vishnukumar. "An Innovative Interpretation for Parallel Universe." Imperial Journal of Interdisciplinary Research 3.5 (2017).
21. [21] Moorthy, C. Ganesa, G. Udhaya Sankar, and G. Rajkumar. "Rotating Bodies Do Have Magnetic Field." (2016).
22. [22] Moorthy, C. Ganesa, G. Udhaya Sankar, and G. RajKumar. "LIGOs Detected Magnetic Field Waves; not Gravitational Waves." Imperial Journal of Interdisciplinary Research 3.8 (2017): 268-269.
23. [23] Udhaya Sankar, G., C. Ganesa Moorthy, and G. RajKumar. "A suggestion for a good anode material synthesized and characterized." Discov 54 (2018): 249-253.
24. [24] Sankar, G. Udhaya. "Climate change challenge–photosynthesis vs. hydro-electrolysis principle." Climate Change 3 (2016): 128-131.
25. [25] Sankar, G. Udhaya. "A Survey on Wavelength Based Application of Ultraviolet LED." computing (2007).
26. [26] UdhayaSankar, G., C. GanesaMoorthy, and G. RajKumar. "Global Magnetic Field Strengths of Planets From A Formula." (2016).
27. [27] Moorthy, C. Ganesa, and G. Udhaya Sankar. "Planck’s Constant and Equation for Magnetic Field Waves." Natural and Engineering Sciences 4.2: 107-113.
28. [28] Moorthy, C. Ganesa, G. Sankar, and G. Rajkumar. "Simplified Interpretation for Einstein’s Energy Mass Relation." Imperial Journal of Interdisciplinary Research 3 (2017).
29. [29] Moorthy, C. Ganesa, G. Udhaya Sankar, and G. Raj Kumar. "Why Do Distant Planets Have Speedy Winds." Mercury 3: 0-24055556.
30. [30] MOORTHY, C. G., SANKAR, G. U., & KUMAR, G. A VELOCITY INDEX FOR EXISTENCE OF ATMOSPHERE IN A PLANET. Mercury, 4(47.4), 10-8937.
31. [31] Udhaya Sankar, G., C. Ganesa Moorthy, and G. RajKumar. "Synthesizing graphene from waste mosquito repellent graphite rod by using electrochemical exfoliation for battery/supercapacitor applications." Energy Sources, Part A: Recovery, Utilization, and Environmental Effects 40.10 (2018): 1209-1214.
32. [32] Moorthy, Ganesa, G. RajKumar, and S. Sekar. "New Design for Charging Section of Electrostatic Precipitators Using Thermocouple Principle for Air Pollution Control." International Journal of Environmental Pollution and Environmental Modelling 1.4 (2018): 116-119.