DETERMINATION OF HEAVY METALS CONCENTRATIONS IN WATER AND SOIL RESOURCES IN THE MESOGEIA VALLEY (ATHENS)
DOI:
https://doi.org/10.53555/eijaer.v2i2.7Abstract
Nowadays, more than ever before, the intense agricultural activity, the increasing industrial development, the increasing urbanization, the overexploitation of the aquifers have leaded in the degradation of the quality of groundwater and soil resources. The heavy metals play a great role because they are not disintergrated, but remain in the upper soil layer with high absorption from the plants and the human causing major problems. This paper presents the heavy metal concentration values, the spatial distribution of them as well as the correlation among these elements with the aim of pointing out the water degradation and the soil deterioration in the Mesogeia Valley. For this reason, 86 water and 42 soil samples, taken from the study area, were tested by atomic absorption spectroscopy and the heavy metal values were determined. The results were statistically analyzed and groundwater and soil resources quality was described. The results of this study constitute a basis for the necessary protection steps that need to be taken to prevent any further degradation of the areas’ natural resources.
References
. Alexakis, D. and Kelepertsis A. 1998. The relationship between the chemical composition-quality of groundwater and the geological environment in the East Attiki area, Greece, Mineral Wealth 109: 9-20.
. Bathrellos G.D., Skillodimou H.D., Kelepertsis A., Alexakis D., Chrisanthaki I., and Archonti D. 2008. Environmental research of groundwater in the urban and suburban area of Attica region, Greece. Environmental Geology 56: 11-18
. Champidi P. 2012. Natural and anthropogenic impacts on the quality of water and soils in eastern Attica. Phd, Agricultural University of Athens, Department of Sciences, Division of Geological Science and Atmospheric Environment, Laboratory of Mineralogy-Geology.
. Douglas, E. B., and Leo, W. N. 1977. Hydrochemical relationships using partial correlation coefficients: Water Resources Bull., v. 13, no. 4, p. 843–846.
. E.U. Council, 1998. Council Directive 98/83 about water quality intended for human consumption, in Official Paper of the European Communities: EC, Brussels, v. L330, p. 32–54.
. Farmaki, E.G. and Thomaidis N.S.. 2008. Current status of the metal pollution of the environment of Greece – A review. Global Nest, Vol.10, No 3, pp 366-375
. Georgalas L. and Koumantakis, I. 1997. Basic quality characteristics of the underground waters in the Hymettus karst system. 4ο Hydrlogic Congress, Thessaloniki. pp.65-83 (In Greek)
. Giannoulopoulos P. and Gkitoni E. 2008. Groundwater quqlity in Koropi-Attiki region with emphasis on the distribution and sources of Chromium. Proc. 8th Intern. Hydrogeol. Congr. of Greece and 3rd MEM Workshop on Fissured Rocks Hydrology, vol. 2:465-476 (text in Greek).
. Jacobshagen, V. 1986. Geologie von Griechenland.- pp 363, Berlin-Stuttgart, (Borntraeger).
. Kabata-Pendias, A. and B. Mukherjee.2007. Trace Elements from Soil to Human, SpringerVerlag, Berlin Heidelberg. p.550
. Kabata-Pendias, A. and Pendias H.. 1992. Trace Elements in Soil and Plant, 2nd ed. CRC Press, Boca Raton, Ann Arbor, London. p.365
. Kallergis, G.Α. ,2000. Applied Hydrogeology, vol. Β- Environmental Hydrogeology (2nd ed.), Technical Chamber of Greece, Athens. p. 331 (In greek).
. Katsikatsos, G. 1992. Geology of Greece.- 451 pp, Athens Lepsius, R. 1893. Geologie von Attica. Ein Beitrag zur Lehre vom Metamorphismus der Gesteine. 1956, Berlin 1893
. Mariolakos, I. and Lekkas, S. 1974. Hydrological conditions in the Koropi Annales Géologiques des pays Helléniques. T. XXVI, pp. 186-250
. Martinez Cortizas A., E. Garcia-Rodeja Gayoso, J.C. Novoa Munoz, X. Pontevedra, P.Buurman, F. Terribile. 2003. Distribution of some selected major and trace elemetns in four italian soils developed from the deposits of the Gauro and Vico volcanoes. Geoderma. 117, 215224.
. Ratha, D. S. and Venkataraman, G. 1997. Application of statistical methods to study seasonal variation in the mine contaminants in soil and groundwater of Goa, India: Environmental Geology, v. 29, no. 3/4, p. 253–262.
. Ross S.M. 1994. Sources and forms of potentially toxic metals in soil-plant systems. In: Ross S.M.
. (eds) Toxic Metals in soil-plant systems. Wiley, Chichester, pp. 4-25.
. Serelis K.G., Kafkala I.G., Parpodis K., and Lazaris S. 2010. Anthropogenic and geogenic contamination due to heavy metals in the vast area of Vari, Attica. Bulletin of the Geol. Soc. of Greece, XLIII, No 5:2390-2397.
. Siegel, F.R. 2002. Environmental Geochemistry of Potentially Toxic Metals. Springer-Verlag, Berlin Heidelberg, p. 218
. Soulios, G. 2004. General Hydrology, 3rd Vol. Stocks and Underground Water Management, Brothers Kyriakidis, Thessaloniki (In Greek).
. Stamatis G., Lambrakis N, Alexakis D. and Zagana E.. 2006. Groundwater quality in Mesogeia basin in eastern Attica (Greece), Hydrogeological Processes, 20, 2803-2818.
. WHO (2006): Guidelines for drinking water quality.-vol. 1, 3d edn, World Health Organization, Geneva. p. 515
. Zhang X.P., W. Deng and X.M. Yang. 2002. The background concentrations of 13 soil trace element relationship to parent materials and vegetation in Xizang (Tibet), China. Journal of Asian Eart 21,167-174.
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