Halogenated Organic Compounds in Water and in Wastewater
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Czestochowa University of Technology, Częstochowa, Poland
Online publication date: 2019-12-26
Publication date: 2019-12-01
Civil and Environmental Engineering Reports 2019;29(4):236–247
Currently, organic halogen compounds (halogen derivatives) are often identified in water. The paper presents the problem of the presence of these newly formed compounds during water treatment processes and their occurrence in sewage. The general indicator determining the content of these compounds in aqueous solutions is the concentration of halogen derivatives of organic compounds adsorbed on activated carbon AOX, which is converted to the concentration of chlorides. The groups of derivatives of halogenated organic compounds containing chlorine and/or bromine in a molecule were characterized, and the precursors and potential for the formation of these compounds in water were described. Moreover, technological methods to prevent and remove them were described.
Anielak, A 2015. Wysokoefektywne metody oczyszczania wody. Wydawnictwo Naukowe PWN, Warszawa.
Jancewicz, A, Dmitruk, U and Kwiatkowska, A 2011. Badania zawartości wybranych substancji halogenoorganicznych (AOX) w wodzie i ściekach. Ochrona Środowiska. 33, 1.
Włodyka-Bergier, A and Bergier, T 2015. Lotne organiczne produkty uboczne chlorowania w wodzie z krakowskich systemów dystrybucji. Wydawnictwa AGH, Kraków.
Włodyka-Bergier, A, Bergier, T and Zając, W 2017. Assessment of applicability of UV irradiation in swimming pool water treatment – a case study. Environment Protection, 39, 1, 53-56.
Rak, M and Świderska-Bróż, M 2001. On the advantages of using prehydrolysed aluminum coagulants. Environment Protection Engineering. 27, 3-4, 5-17.
Cherif, S, Fraaj, RB and Jrad, A 2006. Quality of treated wastewater method validation of AOX, Accreditation and Quality Assurance, 11, 632-637.
Savant, DV, Abdul-Rahman, R and Ranade DR 2006. Anaaerobic degradation of adsorbable organic halides (AOX) from pulp and paper industry wastewater. Bioresource Technology. 97, 1092-1104.
Shomar, B 2007. Sources of adsorbable organic halogens (AOX) in sludge of Gaza. Chemosphere, 69, 1130-1135.
Luyten, J, Sniegowski, K, Van Eyck, K, Maertens, D, Timmermans, S, Liers, S and Braeken, L 2013. AOX removal from industrial wastewaters using advanced oxidation processes: assessement of a combined chemical-biological oxidation. Water Science and Technology, 68, 9, 2048-2054.
Zhang, X, Cui, C and Yu, S 2017. Identyfying oxidation intermediates fordem during ozone-UV of fulvic acid, Desalination and Water Treatment 74, 258-268.
Kowalska, M 2014. The effectiveness of removal of haloacetic acids from water using bioreactor with native enzymes. Membranes and Membrane Processes in Environmental Protection, Monografie Komitetu Inżynierii Środowiska PAN, 49–59.
Jung, C and Son, H 2008. The relationship between disinfection by-products formation and characteristics of natural organic matter in raw water. Korean Journal of Chemical Engineering 25, 4, 714–720.
Gregory, J and Duan, V 2014. Properties of flocs produced by water treatment coagulants. Water Sci. Technol.44(10), 231-236.
Moncayo-Lasso, A, Pulgarin C and Benitez, N 2008. Degradation of DBPs precursors in river water before and after slow sand filtration by photo-Fentonprocess at pH 5 in a solar CPC reactor. Water Research. 42, 15,4125-4132.
IARC - International Agency of Research on Cancer, 1991, 1999, 2002, 2004.
Rozporządzenie Ministra Zdrowia z dnia 7 grudnia 2017 r. w sprawie jakości wody przeznaczonej do spożycia przez ludzi Dz U, 2017, poz. 2294.
Directive 2008/105/EC of European Parliament and of the Council on environmental quality standards in the field of water policy, amending and subsequently repealing Council Directives 82/176/EEC, 83/513/EEC, 84/156/EEC, 84/491/EEC, 86/280/EEC and amending Directive 2000/60/EC of the European Parliament and of the Council, Official Journal of the European Union L 348, 24 December 2008, 84-97.
Gonzales, P and Zaror, C 2000. Effect of process modification on AOX emission from kraft pulp bleaching using Chilean pine and eucalyptus. Journal of Cleaner Production, 8, 233-241.
Schultz, S and Hahn, H 1998. Generation of halogenated organic compounds in municipal wastewater. Water Science and technology, 1, 303-309.
Baycan, N, Thomanetz, E and Sengul, F 2007. Influence of chloride concentration on the formation of AOX in UV oxidative system. Journal of Hazardous Materials. 143, 171-176.
Kabsch-Korbutowicz, M, Urbanowska, A, Majewska-Nowak, K and Kawiecka-Skowron, J 2010. Removal of organic substances from aqueous solutions with the use of ceramic membrane. Annual Set the Environment Protection. 12, 467-478.
Nowacka, A and Włodarczyk-Makuła, M 2015. Effectiveness of priority PAH removal in a water coagulation process, Water Science and Technology: Water Supply. 15, 4, 683–692.
Nowacka, A, Włodarczyk-Makuła, M and Macherzyński, B 2014. Comparison of effectiveness of coagulation with aluminum sulfate and pre-hydrolyzed aluminum coagulants. Desalination and Water Treatment. 52, 3843-3851.
Pernitsky, D and Edzwald, J 2006. Selection of alum and polyaluminum coagulants: Principles and applications. Journal of Water Supply: Research and Technology-AQUA. 55, 121–141.
Krupińska, I 2014. Effect of the type of aluminium coagulant on effectiveness at removing pollutants from groundwater in the process of coagulation. Selected Papers, Section: Water Engineering 9th International Conference “Environmental Engineering”, Vilnus, Lithuania, May 22–23 VGTU Press. http://leidykla.vgtu.lt/confer....
Gumińska, J and Kłos, M 2012. Analysis of post-coagulation properties of flocs in terms of coagulant choice. Environment Protection Engineering. 38, 103-113.
Sinha, S, Yoon, Y, Amy, G and Yoon, J 2004. Determining the effectiveness of conventional and alternative coagulants through effective characterization schemes. Chemosphere. 57(9), 1115-1122.
Zhanmeng, L, Simin, L, Haixia, Z, Fahui, N and Qunhui, W 2013. Preparation, characterisation and coagulation behavior of a novel inorganic coagulant – polyferric(III)-magnesium(II)-sulfate. Environment Protection Engineering. 39, 3, 57-71.
Ghernaout, D, Ghernaout, B and Kellil, A 2009. Natural organic matter removal and enhanced coagulation. Desalination and Water Treatment. 2, 203-222.
Włodarczyk-Makuła, M and Nowacka-Klusek, A 2019. Decrease in the chloride disinfection by-products (DBPs) formation potential in water as a result of coagulation process, Desalination and Water Treatment, 167, 96-104.
Matilainen, A and Sillanpaa, M 2010. Removal of natural organic matter from drinking water by advanced oxidation processes, Chemosphere, 80,4 351-365.
Murray, CA and Parsons, SA 2004. Comparison of AOPs for the removal of natural organic matter: performance and economic assessment. Water Science and Technology. 49, 4, 267-272.
Murray, CA and Parsons, SA 2004. Removal of NOM from drinking water: Fenton’s and photo-Fenton’s processes. Chemosphere, 54,7, 1017-1023.
Han, Q, Wanga, Y, Yan, H, Gaoa, B, Maa, D, Suna, S, Jianya Lingb and Yong-bao Chu 2016. Photocatalysis of THM precursors in reclaimed water: the application of TiO 2 in UV irradiation, Desalination and Water Treatment. 57, 9136-9147.