Environmental qualitative assessment of water resources in Tehran

Jafarynasab, T.

doi:10.22034/ijhcum.2017.02.01.008

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Abstracting and Indexing

International Journal of Human Capital in Urban Management

pISSN 2476-4698
eISSN 2476-4701

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Volume 2 (2017)

Issue 1

Volume 1 (2016)

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Publication starting date	2016
h-index	2
Citations	8
Issue per year	4
No. of volumes	1
No. of issues	4
No. of articles	32
No. of review papers	1
No. of research papers	19
No. of case studies	10
No. of short communications	2
No. of pages	314
No. of references	1036
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Environmental qualitative assessment of water resources in Tehran

Article 8, Volume 2, Issue 1, Winter 2017, Page 77-88 PDF (2128 K)

Document Type: CASE STUDY

DOI: 10.22034/ijhcum.2017.02.01.008

Author

T. Jafarynasab

Department of Environmental Sciences, Sciences and Research Branch, Islamic Azad University, Tehran, Iran

Receive Date: 17 October 2016, Revise Date: 21 November 2016, Accept Date: 12 December 2016

Abstract

Increasing water demand and reducing its contaminations are the main concerns and challenges for water resource managers and planner due to its limited sources and high value. This study aims to assess and understand the factors which threaten the quality of groundwater resources and to achieve this, samples were taken from 14 active wells in District 3 of the Municipality of Tehran. After categorizing the parameters to distinct measurable groups containing anions (SO4, Cl, NO2, NO3, HCO3, CO3), cations (Mg, Na, k) heavy metals (Ag, Pb, Cd) physical parameters (temperature, color and odor) chemical parameters (Total Dissolved Solid , Electrical conductivity, Total Suspended Solids and pH, the data were analyzed using SPSS (version 16) software. The results revealed that excessive amount of nitrate anion in Paidari and Naji station is related to the slope and sandy texture of the wells and also the surrounding area’s soil. Increased cation concentration was visible in Resalat well, which indicated the use of excessive amount of fertilizers containing sodium and also the clay soil texture. Cadmium was the only heavy metal with the concentrations of more than the standard amount. Domestic sewage and surface runoff and also regional geological structure, the lack of appropriate distance between water wells with sewage wells were among other reasons, causing underground water pollution.

Keywords

Chemical Parameters; Groundwater; heavy metals; Physical Parameters; Water Demand; Wells

Main Subjects

Urban ecology and related environmental concerns

References

Allouche, N.; Maanan, M.; Gontara, M.; Rollo, N.; Jmal, I.; Bouri, S., (2017). A global risk approach to assessing groundwater vulnerability. Environ. Modell. Software, 88: 168-182 (15 pages).

Ayers, R.S.; Westcot, D.W., (1985). Water quality for agriculture, Publications Division, Food and Agriculture Organization of the United Nations, Rome, Italy.

Booth, C. A.; Lamble, P., (2012). Improving Water Quality – Stories of progress and success from across Australia. Departement of sustainability environment water population and communities Australian government

Cerar, S.; Mali, N., (2016). Assessment of presence, origin and seasonal variations of persistent organic pollutants in groundwater by means of passive sampling and multivariate statistical analysis. J. Geochem. Explor., 170: 78-93 (15 pages).

Comte, J.C.; Cassidy, R.; Obando, J.; Robins, N.; Ibrahim, K.; Melchioly, S.; Mjemah, I.; Shauri, H.; Bourhane, A.; Mohamed, I.; Noe, C., (2016). Challenges in groundwater resource management in coastal aquifers of East Africa: Investigations and lessons learnt in the Comoros Islands, Kenya and Tanzania. J. Hydrol.: Reg. Stud., 5: 179-199 (21 pages).

Cvitanic, I.; Sodja, E.; Tehovnik, M.D.; Ambrozic, Š.; Grbovic, J.; Jesenovec, B.; Kolenc, A., (2008). River water quality monitoring in Slovenia report 2006 Ljubljana: Environmental Agency of the Republic of Slovenia. Ljubljana, Slovenia.

DEC, N., (2007). Guidelines for the Assessment and Management of Groundwater Contamination. NSW Department of Environment and Conservation.

Egnabor, V.O (1997). Integrating Environmental Education into the Senior Secondary School Biology Curriculum, In Udoh, S.U.; Akpa, G.O., (eds), Environmental education for sustainable development, Jos Tab Educational Books, 217-228 (12 pages).

Food and agriculture organization of United Nations (FAO), (2011). AQUASTAT online. Database. Rome, FAO.

Foster, S; Hirata, R; Gomes, D; D’Elia, M; Paris, M., (2002). Groundwater quality protection. The World Bank. Washington, DC.

Ground Water Resource Mapping in Ohio, (2011). Ohio Department of Natural Resources, Division of soil and water resources, Columbus, Ohio, 92-110 (9 pages).

Hassanzadeh, R.; Abbasnejad, A.; Hamzeh, M.A., (2011). Assessment of groundwater pollution in Kerman urban areas. J. Environ. Stud., 36(56): 101-110 (10 pages).

Kannel, P.R.; Lee, S.; Kanel, S.R.; Khan, S.P.; Lee, Y.S., (2007). Spatial-temporal variation and comparative assessment of water qualities of urban river system: a case study of the river Bagmati (Nepal). Environ. Monit. Assess., 129(1-3): 433-459 (27 pages).

Karbasi, M.; Karbasi, E.; Saremi, A.; Ghorbanizade KHarazi, H., (2010). Evaluation of the concentration of heavy metals in drinking water sources of Elshter city in 2009, Yafte J., 12(1): 65-70 (6 pages). (In Persian)

Mahdavi, M., (2004). Applied Hydrology, Vol. 2. University of Tehran Publication, Iran. (In Persian)

Malakootian, M.; Khashi, Z., (2017). Heavy metals contamination of drinking water supplies in southeastern villages of Rafsanjan plain: Survey of arsenic, cadmium, lead and copper. Journal of Health in the Field, 2(1).

Masoudi, M.; Barzegar, S., (2015). Assessment and zoning of Qualitative and quantitative severely degraded of groundwater resources by using modified model (IMDPA) and Geographic Information System(GIS) in the FiruzAbad plain in Fars province. Journal of Irrigation and Water Engineering, 20: 86-95 (10 pages).

Milovanovic, M., (2007). Water quality assessment and determination of pollution sources along the Axios/Vardar River, Southeastern Europe. Desalin., 213(1-3): 159-173 (15 pages).

Mozafarizadeh, J.; Sajadi, Z., (2014). Survey of groundwater chemical pollution in the Borazjan plain. Iran South Med. J., 17 (5): 927-937 (11 pages).

Nassery, H.; Key Homayoon, Z.; Nakhaei, M., (2012). Effect of Natural and Anthropogenic Factors on Water Resources quality in Lenjanat plain, Esfahan, Iran. Sci. quart. J. Geosci., 22(85): 173-186 (14 pages). (In Persian)