PL EN


Preferencje help
Widoczny [Schowaj] Abstrakt
Liczba wyników
Tytuł artykułu

The Influence of the Presence of Iron in Highly Alkaline Polyaluminium Chlorides on the Effectiveness of Precursors of Disinfection By-Products Removal

Treść / Zawartość
Identyfikatory
Warianty tytułu
Języki publikacji
EN
Abstrakty
EN
The mechanism of coagulation with highly alkaline polyaluminum chlorides is well understood, but there is a lack of information on the effect of the presence of iron in these coagulants on the efficiency of purifying water with increased contents of natural organic matters among which humic substances are precursors of disinfection by-products. The dissolved forms of organic substances are the most problematic with regard to water treatment because major concern is the formation of disinfection by products resulting from reactions between dissolved organic matter fractions and disinfectants. The aim of this study was to evaluate the effectiveness of precursors of disinfection by-products removal using highly alkaline polyaluminium chlorides that had different alkalinity and iron content. In the water after the coagulation process a value of SUVA254 was calculated because this indicator correlates well with dissolved organic matter reactivity and disinfection by-products. The analysis of the obtained results showed that the effectiveness of dissolved organic matter removal was determined by the formation of colored iron-organic complexes.
Rocznik
Strony
109--121
Opis fizyczny
Bibliogr. 50 poz., tab., wykr.
Twórcy
  • University of Zielona Góra, Faculty of Civil Engineering, Architecture and Environmental Engineering; Institute of Environmental Engineering, Poland
Bibliografia
  • 1. Karanfil, T, Schlautman, M A, Erdogan, I 2002. Surfey of DOC and UV measurement practices with implications for SUVA determination. JAWWA 94: 68-77.
  • 2. Krupińska, I, Świderska-Bróż, M 2008. Effect of the presence of organic substances on the extent of iron compound removal from water via oxidation and sedimentation processes. Ochr. Sr. 30: 3-7.
  • 3. Krupińska, I 2017. Effect of organic substances on the efficiency of Fe(II) to Fe(III) oxidation and removal of iron compounds from groundwater in the sedimentation process. Civ. Environ. Eng. Rep. 26: 15-29. doi:10.1515/ceer-2017-0032.
  • 4. Krupińska, I 2020. Impact of the oxidant type on the efficiency of the oxidation and removal of iron compounds from groundwater containing humic substances. Molecules 25: 1-16.
  • 5. Orłowska, E, Roller, A, Pignitter, M, Jirsa, F, Krochler, R, Kondioller, R Keppler, W, B 2017. Synthetic iron complexes as models for natural iron-humic compounds: Synthesis, characterization and algal growth experiments. Science of the Total Environment 577: 94-104.
  • 6. Gonczarow, T O, Kołosow, I W, Kapli, W 2003. O formach nachorzdjenija metallow w poijerchnowstnych wodach, Gidrometeoizdat 77: 73-89.
  • 7. Pandey, A, Pandey, S, Mistra, V 2000. Stability constants of metal-humic acid complexes and its role in environmental detoxification. Ecotoxicology and Environmental Safety 47: 195-200.
  • 8. Krupińska, I 2016. Importance of Humic Substances for Methods of Groundwater Treatment. Pol. J. Soil Sci. 48: 161-172.
  • 9. Krupińska, I 2016. The influence of aeration and type of coagulant on effectiveness in removing pollutants from groundwater in the process of coagulation. Chemical and Biochemical Engineering Quarterly 30: 465-475.
  • 10. Krupińska, I 2016. The impact of the oxidising agent type and coagulant type on the effectiveness of coagulation in the removal of pollutants from underground water with an increased content of organic substances, Journal of Environmental Engineering and Landscape Management 24: 70-78.
  • 11. Albrektiene, R, Rimeika, M, Grazeniene, R 2014. Organic fractions and metal-organic complexes in the groundwater [CD], In Proceedings of the 9th International Conference, Environmental Engineering, Vilnius, Lithuania, 22-23 May, 1-7.
  • 12. Thurman, E M 1985. Organic geochemistry of natural waters, Springer International Publishing.
  • 13. Stumm, W, Morgan, J.J. 1996. Aquatic Chemistry, 3rd ed.; John Wiley Sons Inc.: New York, NY, USA.
  • 14. Du, P, Li, X, Yang, Y, Fan, X. Fang, X, Zhou, Z 2020. Enhanced coagulation by two-stage alum addition: The role of solution pH, floc breakage and assistant of non-ionic polyacrylamide, Environ. Technol. 41, 1-10.
  • 15. Wang, D, Luan, Z, Tang, H 2003. Differences in coagulation efficiencies between PACl and PICl. J. Am. Water Work. Assoc. 95, 79-86.
  • 16. Wolska, M 2018. Removal of precursors of chlorinated organic compounds in selected water treatment processes. Desalin. Water Treat. 52, 3938-3946.
  • 17. Serodes, J B, Rodriguez, M J, Li, H M, Bouchard, C 2003. Occurrence of THMs and HAAs in experimental chlorinated waters of the Quebec City area (Canada). Chemosphere 51, 253-263.
  • 18. Lin, Y L, Chiang, P C, Chang, E 2006. Reduction of disinfection by-products precursors by nanofiltration process. J. Hazard. Mater. 137, 324-331.
  • 19. Roccaro, P, Chang, H S, Vagliasindi, F G A, Korshin, V 2008. Differential absorbance study of effects of temperature on chlorine consumption and formation of disinfection by-products in chlorinated water. Water Res. 42, 1879-1888.
  • 20. Kang, M, T. Kamei, T, Magara, Y 2003. Comparing polyaluminum chloride and ferric chloride for antimony removal. Water Research 37, 4171-4179.
  • 21. Jung, A V, Chanudet, V, Ghanbaja, J, Lartiges, B S, Bersillon, J L 2005. Coagulation of humic substances and dissolved organic matter with a ferric salt: An electron energy loss spectroscopy investigation. Water Res. 39, 3849-3862.
  • 22. Pernitsky, D, Edzwald, J K 2003. Solubility of polyaluminium coagulants. J. Water Supply: Res. Technol. – AQUA 52, 395-406.
  • 23. Tang, H, Luan, Z 2003. Differences in coagulation efficiencies between PACl and PICl. J. Am. Water Works Assoc. 1, 79-86.
  • 24. Libecki, B, Dziejowski, J 2008. Optamization of humic acids coagulation with aluminum and iron (III) salts. Polish Journal of Environmental Study 17, 397-403.
  • 25. Rosińska, A, Dąbrowska, L 2021. Influence of type and dose of coagulants on effectiveness of PAH removal in coagulation water treatment. Water Science and Engineering 14, 193-200.
  • 26. Dafne, C, Marcio, P, Ana, R, Wilson, C 2020. Charge Neutralization Mechanism Efficiency in Water with High Color Turbidity Ratio Using Aluminium Sulfate and Flocculation Index. Water 12, 572.
  • 27. Man, P, Yun-Ju, K, Jeong-Hun, J, Jae-Deok, S, Junhyung, K, Seung-Min, P, Woo-Taik, L, 2020. Sridhar Formation Mechanism of Al13 Keggin Cluster in Hydrated Layered Polysilicates. Dalton Transactions 49, 15.
  • 28. Gumińska, J, Kłos, M 2015. Effect of polyaluminium chlorides overdosage on effectiveness of coagulation and filtration. Environment Protection Engineering 41, 5-14.
  • 29. Setyo Budi, K, Siti Rozaimah Sheikh, A, Muhammad Fauzul, I, Nor Sakinah Mohd, S, Nur Izzati, I, Hassimi Abu, H, Ahmad Razi, O, Ipung Fitri, P. 2020. Challenges and opportunities of biocoagulant/bioflocculant application for drinking water and wastewater treatment and its potential for sludge recovery, Int. J. Environ. Res. Public Health. 17, 9312.
  • 30. Matilainen, A, Vepsäläinen, M, Sillanpää, M 2010. Natural organic matter removal by coagulation during drinking water treatment: a review, Adv. Colloid Interfac. 159, 189-197.
  • 31. Krupińska, I 2020. The effect of the type of hydrolysis of aluminum coagulants on the effectiveness of organic substances removal from water. Desalination and Water Treatment 186, 171-180.
  • 32. Krupińska, I 2018. Removal of natural organic matter from groundwater by coagulation using prehydrolysed and non-prehydrolysed coagulants, Desalination and Water Treatment 132, 244-252.
  • 33. Krupińska, I 2019. Removal of iron and organic substances from groundwater in an alkaline medium. Journal of Environmental Engineering and Landscape Management 27, 12-21.
  • 34. Krupińska, I 2023. Suitability of highly polymerised polyaluminium chlorides (PACls) in the treatment of mixture of groundwater and surface water. Molecules 28, 468.
  • 35. Krupińska, I 2021. Removing iron and organic substances from water over the course of its treatment with the application of average and highly alkaline polyaluminium chlorides. Molecules 26, 1-24.
  • 36. Edzwald, J K, Tobiason, J E 1999. Enhanced coagulation: US requirements and a broader view. Water Science and Technology 40, 63-70.
  • 37. Machi, J, Mołczan, J 2016. Methods for natural organic matter characterization in water taken and treated for human consuption. Ochrona Środowiska 38, 25-32.
  • 38. Manufacturer’s Specification (Coagulants: PAX XL10, PAXXL1911, PAXHP908 were Produced by Kemipol in Police Poland). Available online: https://www.kemipol.com.pl/nowoczesne-technologie/
  • 39. Zhou, W, Gao, B, Yue, Q, Liu, L, Wang, Y 2006. Al-Ferron kinetics and quantitative calculation of Al(III) species in polyaluminum chloride coagulants. Colloid Surf. A 278, 235-240.
  • 40. International Standard, Water Quality - Examination and Determination of Colour, Technical Committee ISO/TC 147/SC 2 Physical, Chemical and Biochemical Methods: 2011, ISO 7887 https://www.iso.org/obp/ui/#iso:std:iso:7887
  • 41. Aiken, G, McKnight, D, Thorn, K, Thurman, E 1992. Isolation of hydrophilic organic acids from water using nonionic macroporous resins, Org. Geochem. 18, 567-573.
  • 42. Szlachta, M, Adamski, W 2008. Assessing efficiency of Natural Organic Matter removal from water by coagulation. Ochrona Środowiska 30, 9-13.
  • 43. Singha, N, K, Pandeya, S, Singh, S, Kazmi, A A 2016. Post treatment of UASB effluent by using inorganic coagulants: Role of zeta potential and characterization of solid residue. JECE 4,1495-1503.
  • 44. Jerzykiewicz, M 2004. Formation of new radicals in humic acids upon interaction Pb(II) ions. Geoderma 122, 305-309. doi:10.1016/j.geoderma.2004.01.017.
  • 45. Kwakye-Awuah, B, Sefa-Ntiri, B, Von-Kiti, E, Nkrumah, I, Williams, C 2019. Adsorptive removal of iron and manganese from groundwater samples in Ghana by zeolite Y synthesized from bauxite and kaolin. Water 11, 1912.
  • 46. Rahman, M A, Hasan, M A, Rahim, A, Shafigul Alam, A M 2010. Characterization of humic acid from the river bottom sediments of Burigonga: Complexation studies of metals with humic acid. Pakistan Journal of Analytical and Environmental Chemistry 11 (1), 42-52.
  • 47. Helal, A A, Murad, G A, Helal, A A 2011. Characterization of different humic materials by various analytical techniques. Arab. J. Chem. 4, 51-54.
  • 48. Nakamoto, K 2009. Infrared and Raman spectra of inorganic and coordination compounds: Part A: Theory and Applications in Inorganic Chemistry. 6th ed.; John Wiley & Sons, Inc.: New York, NY, USA.
  • 49. Silverstein, R, Webster, F, D. Kiemle, A A 2012. Spektroskopowe Metody Identyfikacji Związków Organicznych. (Spectroscopic Methods for Identification of Organic Compounds), PWN, Warszawa, Poland.
  • 50. Edzwald J K, Tobiason, J E 1998. Enhanced versus optimized multiple objective coagulation. In Chemical Waterand Wastewater Treatment V, Hahn, H., Hoffmann, E., Odegaard, H., Eds., Springer Verlag, Berlin, Germany, 113-124
Uwagi
Opracowanie rekordu ze środków MEiN, umowa nr SONP/SP/546092/2022 w ramach programu "Społeczna odpowiedzialność nauki" - moduł: Popularyzacja nauki i promocja sportu (2022-2023)
Typ dokumentu
Bibliografia
Identyfikator YADDA
bwmeta1.element.baztech-2fd8833b-0063-4ce8-887b-f1df143e17ee
JavaScript jest wyłączony w Twojej przeglądarce internetowej. Włącz go, a następnie odśwież stronę, aby móc w pełni z niej korzystać.