Production Tests of the Don Water Purification and Disinfection Technology

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One of the promising ways to reduce the content of organic pollutants in natural waters is the use of biological processes in combination with sorption on powdered activated carbon followed by membrane filtration and, as the final stage, disinfection of the obtained permeate by direct electrolysis. The paper presents the results of the efficiency of purification of the Don water, which underwent physicochemical treatment from halogen-organic contaminants in a biosorption-membrane reactor and the dependencies characterizing the disinfection of water by direct electrolysis in a flow-through membraneless electrolyzer. The studies were carried out using powdered active carbon, hollow fiber, and flat plate membranes. An oxide iridium-ruthenium titanium anode (OIRTA) was used as electrodes in a flow-through electrolyzer. As a result of processing the experimental results, the efficiency of removing not only the turbidity and color of water, but also organic substances, which cause high permanganate oxidizability and COD, has been established. The results of experimental studies have shown a high efficiency of purification and disinfection of natural water to the requirements of SanPiN. The efficiency of COD reduction was on average 41.2%, color - 57.3%, permanganate oxidizability - 33.3%.

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Materials Science Forum (Volume 1052)

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454-461

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February 2022

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© 2022 Trans Tech Publications Ltd. All Rights Reserved

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[1] S.V. Kostyuchenko, S.V. Volkov, A.V. Yakimenko, V.T. Mazaev, S.Yu. Shishov, Disinfection in the preparation of drinking water from surface sources, Water Supply and Sanitary Ware. 2 (2000) 9-12.

Google Scholar

[2] Yu.A. Rakhman, E.V. Shtannikov, I.E. Ilyin et al., Study of the danger of halogenated organic compounds formed during the chlorination of drinking water, Hygiene and Sanitation. 3 (1985) 4-7.

Google Scholar

[3] L.P. Alekseeva, V.L. Draginsky, Formation of by-products during water disinfection and methods for reducing their concentration, in: Technologies for Water Purification TECHNOVOD-2004,: Materials of the Intern. Scientific-Practical. Conf. Dedicated to the 100th Anniversary of SRSTU (NPI), LLC NPO Temp, Novocherkassk, 2004, pp.83-86.

Google Scholar

[4] V.L. Draginsky, L.P. Alekseeva, Ways to solve the problem of reducing the concentration of organochlorine compounds formed during chlorination of water, in: Technologies for Water Purification TECHNOVOD-2008,: Materials of the IV Intern. Scientific-Pract. Conf., Onyx+, Novocherkassk, 2008, pp.18-24.

Google Scholar

[5] L.I. Gunther, L.P. Alekseeva, Ya.L. Khromchenko, Influence of organic impurities in natural water on the formation of toxic volatile halogenated alkanes during its chlorination, Chemistry and Technology of Water. 8(1) (1986) 37-41.

Google Scholar

[6] L.I. Gunther, L.P. Alekseeva, Ya.L. Khromchenko, Influence of inorganic impurities of natural waters on the formation of chloroform in drinking water, Chemistry and Technology of Water. 10(2) (1988) 110-112.

Google Scholar

[7] L.P. Alekseeva, Ya.L. Khromchenko, Influence of conditions of reagent water treatment on the formation of chloroform, Chemistry and Technology of Water. 10(2) (1988) 140-144.

Google Scholar

[8] V.A. Prokopov, E.D. Maktaz, G.V. Tolstopyatova, Influence of individual factors on the formation of trihalomethanes in chlorinated water, Chemistry and Technology of Water. 15(9-10) (1993) 633-640.

Google Scholar

[9] B.V. Vasiliev, Yu.A. Trukhin, E.A. Evelson, Disinfection of wastewater at treatment facilities of the State Unitary Enterprise Vodokanal of St. Petersburg,, Water Supply and Sanitary Ware. 10 (2000) 22-25.

Google Scholar

[10] A.Yu. Skryabin, L.N. Fesenko, S.I. Ignatenko, I.V. Pchelnikov, Formation of volatile organochlorine compounds during the disinfection of the Don water with chlorine-containing reagents, Water Supply and Sanitary Ware. 7 (2020) 4-10.

Google Scholar

[11] V.A. Usoltsev, T.A. Krasnova, N.I. Baranova, Investigation of the coagulation process in the primary chlorination of water, Water Supply and Sanitary Ware. 11 (1994) 9-11.

Google Scholar

[12] L.N. Fesenko, A.Yu. Skryabin, S.A. Breus, I.V. Pchelnikov, Production tests of drinking water disinfection by direct electrolysis, Water Supply and Sanitary Ware. 5 (2017) 15-20.

Google Scholar

[13] L.N. Fesenko, S.I. Ignatenko, I.V. Pchelnikov, Improvement of sodium hypochlorite production technology by electrolysis of seawater, Water Supply and Sanitary Ware. 1 (2015) 11-20.

Google Scholar

[14] I.V. Pchelnikov, L.N. Fesenko, A.S. Terikov, S.I. Ignatenko, Obtaining sodium hypochlorite by direct electrolysis of low-mineralized water, in: Technologies for Water Purification TECHNOVOD-2017, Materials of the X - Jubilee International Scientific and Practical Conference, 2017, pp.73-78.

Google Scholar

[15] L.N. Fesenko, R.V. Fedotov, Comparative assessment of resistance of hardwearing anodes, ternary coated with iridium, ruthenium, and titanium, Solid State Phenomena. 265 (2017) 580-586.

DOI: 10.4028/www.scientific.net/ssp.265.580

Google Scholar

[16] I. Pchelnikov, R.V. Fedotov, S.A. Breus, On the choice of the water treatment technology for rural areas, IOP Conf. Ser.: Mater. Sci. Eng. 962 (2020) 1-9.

DOI: 10.1088/1757-899x/962/4/042083

Google Scholar

[17] V.N. Shvetsov, K.M. Morozova, L.N. Fesenko, A.Yu. Scryabin, A.I. Vergunov, Chlorine and organobromine compounds in drinking water: methods of their removal, Water Supply and Sanitary Ware. 2 (2014) 30-35.

Google Scholar

[18] A.I. Vergunov, Don water purification in a biosorption-membrane reactor, in: Yakovlevskie Readings: Collection of Reports of XI Scientific and Technical Conf., in Memory of Acad. of RAS Sergei Vasilievich Yakovlev, ASV, Moscow, 2016, pp.36-38.

Google Scholar

[19] A.I. Vergunov, Biosorption-membrane technology for purifying the Don water, Bulletin of SGASU Urban Planning and Architecture. 2 (23) (2016) 23-26.

Google Scholar

[20] Fesenko L. N., Vergunov A. I., Shvetsov V. N., Morozova K. M., Kostyukov V.P. Biosorption membrane reactor with flat filtering elements: calculation method // Water supply and sanitary ware. - 2017. - No. 4. - P. 12-17.

Google Scholar

[21] GOST 18190-72. Potable Water. Methods for Determining the Content of Active Chlorine, Publishing House of Standards, Moscow, (1976).

Google Scholar

[22] M. Henze, Wastewater Treatment. Biological and Chemical Processes, Mir, Moscow, (2004).

Google Scholar

[23] M. Dixon, E. Webb, Enzymes: Translated from English, Vol. 1, third ed., Mir, Moscow, (1982).

Google Scholar