冰浆清洗技术在实际供水管道中的应用与优化

黄钰婧; 陈志伟; 何桂琳; 邵煜; 宋爽; 董飞龙; 张土乔

doi:10.1016/j.eng.2023.09.016

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工程（英文） ›› 2024, Vol. 40 ›› Issue (9) : 122-130. DOI: 10.1016/j.eng.2023.09.016

研究论文

Article

冰浆清洗技术在实际供水管道中的应用与优化

黄钰婧 ^a ,
陈志伟 ^b ,
何桂琳 ^c ,
邵煜 ^a ,
宋爽 ^d ,
董飞龙 ^d^,^* ,
张土乔 ^a

作者信息 +

Application of Ice Pigging in a Drinking Water Distribution System: Impacts on Pipes and Bulk Water Quality

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Highlight

• Chloride and total iron concentration were introduced to reveal the discharge of ice pigs.

• No disturbance on passivated oxide surface was observed on metallic-based pipes.

• The bacterial richness and diversity of bulk water decreased after ice pigging.

• Correlations between physic-chemical parameters and abundant taxa were established.

• Long-term data of turbidity, residual chlorine and total iron ensure the role of ice pigging.

Abstract

Ice pigging is an emerging technique for pipe cleaning in drinking water distribution systems. However, substantial confusion and controversy exist on the potential impacts of ice pigging on bulk water quality. This study monitored the microstructural features and composition of sediments and microbial community structures in bulk water in eight multimaterial Chinese networks. Chloride concentration analysis demonstrated that separate cleaning of pipes with different materials in complex networks could mitigate the risk of losing ice pigs and degrading water quality. The microstructural and trace element characterization results showed that ice pigs would scarcely disturb the inner surfaces of long-used pipes. The bacterial richness and diversity of bulk water decreased significantly after ice pigging. Furthermore, correlations were established between pipe service age, temperature, and chloride and total iron concentrations, and the 15 most abundant taxa in bulk water, which could be used to guide practical ice pigging operations.

Keywords

Ice pigging / Pipe cleaning / Drinking water distribution system / Bacterial community / Sediments

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黄钰婧, 陈志伟, 何桂琳. 冰浆冲洗技术在实际供水管道中的应用与优化. Engineering. 2024, 40(9): 122-130 https://doi.org/10.1016/j.eng.2023.09.016

参考文献

原文顺序 | 文献年度倒序 | 文中引用次数倒序

[1]	Ma X, Li G, Chen R, Yu Y, Tao H, Zhang G, et al. Revealing the changes of bacterial community from water source to consumers tap: a full-scale investigation in eastern city of China. J Environ Sci 2020; 87:331-40.
[2]	Waller SA, Packman AI, Hausner M. Comparison of biofilm cell quantification methods for drinking water distribution systems. J Microbiol Methods 2018; 144:8-21.
[3]	Zhang L, Xu L, Graham N, Yu W. Unraveling membrane fouling induced by chlorinated water versus surface water: biofouling properties and microbiological investigation. Engineering 2022; 15:154-64.
[4]	Liu S, Gunawan C, Barraud N, Rice SA, Harry EJ, Amal R. Understanding, monitoring, and controlling biofilm growth in drinking water distribution systems. Environ Sci Technol 2016; 50(17):8954-76.
[5]	Pourcel F, Duchesne S. Comparative analysis of air scouring and unidirectional flushing of water distribution systems. J Water Supply Res Technol Aqua 2020; 69(6):578-90.
[6]	Wang H, Hu C, Shi B. The control of red water occurrence and opportunistic pathogens risks in drinking water distribution systems: a review. J Environ Sci 2021; 110:92-8.
[7]	Vidlářová PJ, Heviánková S. Comparison of modern drinking water network maintenance methods: evaluation of removed deposits in the form of total suspended solids (TSS). Int J Environ Res Public Health 2021;18(8):4311.
[8]	Kauffeld M, Gund S. Ice slurry-history, current technologies and future developments. Int J Refrig 2019; 99:264-71.
[9]	Shire GSF, Quarini GL, Evans TS. Pressure drop of flowing ice slurries in industrial heat exchangers. Appl Therm Eng 2009; 29(8-9):1500-6.
[10]	Quarini G, Aislie E, Ash D, Leiper A, McBryde D, Herbert M, et al. Transient thermal performance of ice slurries pumped through pipes. Appl Therm Eng 2013; 50(1):743-8.
[11]	Cai L, Liu Z, Mi S, Luo C, Ma K, Xu A, et al. Investigation on flow characteristics of ice slurry in horizontal 90° elbow pipe by a CFD-PBM coupled model. Adv Powder Technol 2019; 30(10):2299-310.
[12]	Kumano H, Kobayashi T, Makino Y, Morimoto T, Asaoka T. Experimental study on flow characteristics of ice slurry through a T-junction part I: laminar flow. Int J Refrig 2020; 116:89-95.
[13]	Quarini G, Ainslie E, Herbert M, Deans T, Ash D, Rhys D, et al. Investigation and development of an innovative pigging technique for the water-supply industry. Proc Inst Mech Eng 2010; 224(2):79.
[14]	Moore R. Ice pigging offers sustainable main cleaning technology. Opflow 2013; 39(3):14-6.
[15]	Ervin K, Moore R, Friedman M. The new ice age: pigging effectively cleans water and wastewater pipelines. Opflow 2014; 40(4):14-8.
[16]	Huang Y, Dong F, He G, Lin Q, Wang D, Shao Y, et al. Review of ice slurry pigging techniques for the water supply industry: engineering design and application. ACS EST Eng 2022; 2(7):1144-59.
[17]	Zhang S, Ali A, Su JF, Huang TL, Li M. Performance and enhancement mechanism of redox mediator for nitrate removal in immobilized bioreactor with preponderant microbes. Water Res 2022; 209:117899.
[18]	Lytle DA, Tang M, Francis AT, O’Donnell AJ, Newton JL. The effect of chloride, sulfate and dissolved inorganic carbon on iron release from cast iron. Water Res 2020; 183:116037.
[19]	Pieper KJ, Tang M, Jones CN, Weiss S, Greene A, Mohsin H, et al. Impact of road salt on drinking water quality and infrastructure corrosion in private wells. Environ Sci Technol 2018; 52(24):14078-87.
[20]	Mika L. Rheological behaviour of low fraction ice slurry in pipes and pressure loss in pipe sudden contractions and expansions. Int J Refrig 2012; 35(6):1697-708.
[21]	Rayhan FA, Pamitran AS, Yanuar. Rheology of ice slurry in circular pipe at different freezing-point depressants. Int J Air Cond Refrig 2020; 28(1):2050002.
[22]	Quarini J. Ice-pigging to reduce and remove fouling and to achieve clean-inplace. Appl Therm Eng 2002; 22(7):747-53.
[23]	Suzuki K, Kawasaki T, Asaoka T, Yoshino M. Numerical simulations of solid- liquid and solid-solid interactions in ice slurry flows by the thermal immersed boundary-lattice Boltzmann method. Int J Heat Mass Transf 2020; 157:119944.
[24]	Jia S, Tian Y, Li J, Chu X, Zheng G, Liu Y, et al. Field study on the characteristics of scales in damaged multi-material water supply pipelines: insights into heavy metal and biological stability. J Hazard Mater 2022; 424:127324.
[25]	Andra SS, Makris KC, Charisiadis P, Costa CN. Co-occurrence profiles of trace elements in potable water systems: a case study. Environ Monit Assess 2014; 186(11):7307-20.
[26]	Qin J, Liang B, Peng Z, Lin C. Generation of microplastic particles during degradation of polycarbonate films in various aqueous media and their characterization. J Hazard Mater 2021; 415:125640.
[27]	Liu S, Li Z, Du H, Zhang W, Huang G, Goodman BA, et al. Oxidation of iodide by PbO2, the major lead pipe corrosion product: kinetics, mechanism and formation of toxic iodinated disinfection by-products. Chem Eng J 2023; 451 (Pt 4):139033.
[28]	Li G, Ding Y, Xu H, Jin J, Shi B. Characterization and release profile of (Mn, Al)- bearing deposits in drinking water distribution systems. Chemosphere 2018; 197:73-80.
[29]	Alvarez-Bastida C, Martinez-Miranda V, Vazquez-Mejia G, Solache-Rios M, de Oca GFM, Trujillo-Flores E. The corrosive nature of manganese in drinking water. Sci Total Environ 2013; 447:10-6.
[30]	Makris KC, Andra SS, Botsaris G. Pipe scales and biofilms in drinking-water distribution systems: undermining finished water quality. Crit Rev Environ Sci Technol 2014; 44(13):1477-523.
[31]	Husband PS, Boxall JB. Asset deterioration and discolouration in water distribution systems. Water Res 2011; 45(1):113-24.
[32]	Wang H, Hu C, Hu X, Yang M, Qu J. Effects of disinfectant and biofilm on the corrosion of cast iron pipes in a reclaimed water distribution system. Water Res 2012; 46(4):1070-8.
[33]	Sun H, Shi B, Bai Y, Wang D. Bacterial community of biofilms developed under different water supply conditions in a distribution system. Sci Total Environ 2014; 472:99-107.
[34]	Wang H, Hu C, Zhang L, Li X, Zhang Y, Yang M. Effects of microbial redox cycling of iron on cast iron pipe corrosion in drinking water distribution systems. Water Res 2014; 65:362-70.
[35]	Liu J, Ren H, Ye X, Wang W, Liu Y, Lou L, et al. Bacterial community radial- spatial distribution in biofilms along pipe wall in chlorinated drinking water distribution system of east China. Appl Microbiol Biotechnol 2017; 101 (2):749-59.
[36]	El-Chakhtoura J, Saikaly PE, Vrouwenvelder JS. Impact of distribution and network flushing on the drinking water microbiome. Front Microbiol 2018; 9:2205.
[37]	Dong F, Li C, Lin Q, Duan H. Effect of pipe materials on disinfection by-products and bacterial communities during sulfamethazine chlorination in a pilot-scale water distribution system. Environ Chem Lett 2019; 17(2):1039-44.
[38]	Abecasis AB, Serrano M, Alves R, Quintais L, Pereira-Leal JB, Henriques AO. A genomic signature and the identification of new sporulation genes. J Bacteriol 2013; 195(9):2101-15.
[39]	Maddela NR, Gan ZH, Meng YB, Fan FQ, Meng FA. Occurrence and roles of comammox bacteria in water and wastewater treatment systems: a critical review. Engineering 2022; 17:196-206.
[40]	Kennedy LC, Miller SE, Kantor RS, Nelson KL. Effect of disinfectant residual, pH, and temperature on microbial abundance in disinfected drinking water distribution systems. Environ Sci Wat Res Technol 2021; 7(1):78-92.
[41]	Monteiro L, Figueiredo D, Covas D, Menaia J. Integrating water temperature in chlorine decay modelling: a case study. Urban Water J 2017; 14 (10):1097-101.