MODELING OF TURBIDITY DISTRIBUTION IN WATER NETWORKS USING PMS MODEL - AL-SARAY SECTOR IN KUFA CITY AS A CASE STUDY

Authors

DOI:

https://doi.org/10.30572/2018/KJE/140304

Keywords:

Turbidity, PSM Model, Resuspension Velocity, Deposition Velocity, Water Distribution Network

Abstract

The Water industry faces a significant problem in reducing water turbidity. The introduction and enhancement of proactive operation and maintenance techniques to reduce turbidity can be facilitated by the capacity to predict the geographical probability and severity of turbidity in distribution systems. In this study, the Particle Sediment Model (PSM) is used to simulate turbidity in a water distribution system. This study sought to ascertain how water treatment facilities impact the turbidity of tap Water. The Al-Saray water distribution network in Kufa city /Najaf Governorate is covered by the work The impact of water turbidity on the network revealed that the source of the particles entering the network is the treatment facility. The highest turbidity values in the system were recorded at 9.67, 16.68, 13.38, 11.30, 9.82, and 5.27 NTU when the source sediment quality (effluent turbidity from WTP) met the standard specifications of (5) NTU, while the highest values were noted when the source sediment quality (26.6) NTU was at 51.35, 101.02, 77.64, 62.94, 52.46, and 20.22 NTU. Failure to carry out continuous cleaning of the network and poor water treatment from drinking water treatment plants are among the most important reasons for the rise in turbidity in drinking water.

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References

Abed, Z. H., and Khudair, K. M. (2023) Investigation of high-turbidity tap water problem in Najaf governorate/middle of Iraq, Open Engineering,13(1).

Al-Ithari, A. (2013). Evaluating and improving the tools for predicting discoloration events in potable water supply system (Doctoral dissertation, Curtin University).‏

Blevins, R. D. (1984) Applied fluid dynamics handbook, Van Nostrand Reinhold, New York.

Boxall, J. B., & Prince, R. A. (2006). Modelling discoloration in a Melbourne (Australia) potable water distribution system. Journal of Water Supply: Research and Technology AQUA, 55(3), 207-219.‏

Boxall, J. B., & Saul, A. J. (2005). Modeling discoloration in potable water distribution systems. Journal of Environmental Engineering, 131(5), 716-725.‏

Clark, R. M., Grayman, W. M., Males, R. M., & Hess, A. F. (1993). Modeling contaminant propagation in drinking-water distribution systems. Journal of environmental engineering, 119(2), 349-364.‏

Furnass, W. R., Collins, R. P., Husband, P. S., Sharpe, R. L., Mounce, S. R., & Boxall, J. B. (2014). Modelling both the continual erosion and regeneration of discolouration material in drinking water distribution systems. Water Science and Technology: Water Supply, 14(1), 81-90.‏

Gauthier, V., Barbeau, B., Millette, R., Block, J. C., & Prevost, M. (2001). Suspended particles in the drinking water of two distribution systems. Water Science and Technology: Water Supply, 1(4), 237-245.

‏ Gauthier, V., Gérard, B., Portal, J. M., Block, J. C., & Gatel, D. (1999). Organic matter as loose deposits in a drinking water distribution system. Water Research, 33(4), 1014-1026.‏

Hossain, A. (2005). CFD investigation for turbidity spikes in drinking water distribution networks (Doctoral dissertation, Swinburne University of Technology, Faculty of Engineering and Industrial Sciences).‏

Husband, P. S., Boxall, J. B., & Saul, A. J. (2008). Laboratory studies investigating the processes leading to discoloration in water distribution networks. Water Research, 42(16), 4309-4318.‏

LeChevallier, M. W., Babcock, T. M., & Lee, R. G. (1987). Examination and characterization of distribution system biofilms. Applied and environmental microbiology, 53(12), 2714-2724.

‏Ryan, G., Mathes, P., Haylock, G., Jayaratne, A., Wu, J., Noui-Mehidi, N., Grainger, C., and Nguyen, B. V. (2008). Particles in water distribution systems, Cooperative Research Centre for Water Quality and Treatment, Salisbury, Australia. Research report 33.

Sly, L. I., Hodgkinson, M. C., & Arunpairojana, V. (1990). Deposition of manganese in a drinking water distribution system. Applied and environmental microbiology, 56(3), 628-639.‏

Steel, E. W., and McGhee, T. J. (1960). Water supply and sewerage, McGraw-Hill Book Company, New York, 5 th edition, (05: 06: 07 A STE), 1979, 679.

Van Rijn, L. C. (1984). Sediment transport, part I: bed load transport. Journal of hydraulic engineering, 110(10), 1431-1456.‏

van Summeren, J., & Blokker, M. (2017). Modeling particle transport and discoloration risk in drinking water distribution networks. Drinking Water Engineering and Science, 10(2), 99-107.‏

Van Thienen, P., Vreeburg, J. H. G., & Blokker, E. J. M. (2011). Radial transport processes as a precursor to particle deposition in drinking water distribution systems. Water research, 45(4), 1807-1817.‏

World Health Organization, (2008). Guidelines for Drinking-Water Quality: Third edition incorporating the first and second addenda, Vol. 1, Recommendations World Health Organization, Geneva ISBN 9789241547611.

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Published

2023-08-18

How to Cite

H. Abed, Zahraa, and Kifah M. Khudair. “MODELING OF TURBIDITY DISTRIBUTION IN WATER NETWORKS USING PMS MODEL - AL-SARAY SECTOR IN KUFA CITY AS A CASE STUDY”. Kufa Journal of Engineering, vol. 14, no. 3, Aug. 2023, pp. 48-68, doi:10.30572/2018/KJE/140304.

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