Journals / Sakarya University Journal of Science / 2020 / Cilt: 24 Sayı: 5

Groundwater Pollution Connected to Multiple Effect: A Case Study Kaman (Kırşehir, Turkey)

Pages
1008–1022
Publication Date
2020-10-01
DOI
—
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AI Summary & Key Takeaways

AI Insight
⚡ TL;DR(Too Long; Didn't Read)

Especially As contamination is a big problem for the region, because of tens of times exceed drinking water regulations.

📌 3 Key Takeaways

🎯
Objective & Hypothesis:This study aim to detect the groundwater pollution connected to multiple effect such as the interaction of mineral/ore-water, mining destruction and agricultural activities in Kaman (Kırçehir).
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Key Findings & Data:The electrical conductivity, pH and Eh values of the waters range between 126-1994 μS/cm; 7.28-8.58; 222-649 mV respectively.
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Conclusion & Impact:Especially As contamination is a big problem for the region, because of tens of times exceed drinking water regulations.
🔬Design:Research Article
📍Scope:Comprehensive Sample
⚙️Variables:Groundwater pollution · mineral-water interaction · mining destruction

Abstract

This study aim to detect the groundwater pollution connected to multiple effect such as the interaction of mineral/ore-water, mining destruction and agricultural activities in Kaman (Kırçehir). The study area has recently abondoned iron, antimony, gold and floride mine areas and so, there are a lot of mine piles. Mine waste is a rich source of hazardous trace elements to the environment. In many areas expecially abandoned sulphidic mine wastes may cause to produce acid mine drainage. Although no acid mine drainage is observed in the study area, the region needs to be reworked for this purpose in the following years. The electrical conductivity, pH and Eh values of the waters range between 126-1994 μS/cm; 7.28-8.58; 222-649 mV respectively. In the rainy season, the pH values of the waters decreased due to the effect of slight acidic precipitation and in parallel with this decrease, EC, TDS, Ca, Na, SO4, HCO3, As, Sb, U concentrations of some waters increase due to the increase of solubility of elements. As, Sb, F, U, NO3, NH4 concentrations some of water exceed the maximum limit values given in the Turkish and World Health Organization Standards. Especially As contamination is a big problem for the region, because of tens of times exceed drinking water regulations.

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Cite This Article

KESKİN, T. E., SUBAŞI, B., GİRİŞEN, F., BAŞIBÜYÜK, Z. (2020). Groundwater Pollution Connected to Multiple Effect: A Case Study Kaman (Kırşehir, Turkey). Sakarya University Journal of Science, Cilt: 24 Sayı: 5, 1008–1022. https://ajindex.com/articles/941882

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References (6)

  1. T. E. Keskin, “Nitrate and heavy metal pollution resulting from agricultural activity: a case study from Eskipazar (Karabük, Turkey),” Environmental Earth Sciences, 61: 703–721, 2010. T. E. Keskin, and S. Toptaş, “Heavy metal pollution in the surrounding ore deposits and mining activity: a case study from Koyulhisar (Sivas–Turkey)”, Environmental Earth Sciences, 67: 859–866, 2012. A. Baba, and O. Gündüz, “Effect of geogenic factors on water quality and its relation to human health around Mount Ida, Turkey”, Water, 9, 66: 1–22, 2017. D. S. Yücel, and A. Baba, “Determining water and sediment quality related to lead-zinc mining activity”, Archives of Environmental Protection, 44: 19–30, 2018. N. Balcı, and C. F. Demirel, “Prediction of acid mine drainage (AMD) and metal release sources at the Küre Copper Mine Site, Kastamonu, NW Turkey”, Mine Water and the Environment, 37: 56–74, 2018.
  2. N. Balcı, B. Brunner, and A.V. Turchyn, “Tetrathionate and elemental sulfur shape the isotope composition of sulfate in acid mine drainage”. Frontiers in Microbiology, 8: 1564, 2017. F. N. Assubaie, “Assessment of the levels of some heavy metals in water in Alahsa Oasis farms, Saudi Arabia, with analysis by atomic absorption spectrophotometry,” Arabian Journal of Chemistry 8: 240–245, 2015.
  3. C. Zhang, O. Selinus, and G. Kjellstrom, “Discrimination between natural background and anthropogenic pollution in environmental geochemistry-exemplified in an area of southeastern Sweden,” Science of the Total Environment. 243–244, 129–140, 1999.
  4. D. Postma, S. Jessen, N. Hue, M. Duc, C. Koch, P. Viet, P. Nhan, and F. Larsen, “Mobilization of arsenic and iron from Red River floodplain sediments, Vietnam,” Geochim Cosmochim Acta 74:3367–3381, 2010.
  5. T. Agusa, T. Kunito, T. Minh, P. Trang, H. Iwata, P. Viet, and S. Tanabe, “Relationship of urinary arsenic metabolites to intake estimates in residents of the Red River Delta, Vietnam,” Environ. Pollut. 157: 396–403., 2009. T. L. Luu, “Remarks on the current quality of groundwater in Vietnam,” Water. Industry: water-energy-health nexus, environ sci pollut res, doi 10.1007/s11356-017-9631-z, 2017. İ. Seymen, “Kaman (Kırşehir) dolayısında Kırşehir Masifi’nin statigrafisi ve metamorfizması,” Türkiye Jeoloji Kurumu Bülteni, 24, 7–4, 1981. H. Kara, and M. Dönmez, “1/100.000 Ölcekli Açınsana Nitelikli Türkiye Jeoloji Haritaları-Kırşehir G17 Paftası,” MTA Genel Müdürlüğü, Jeoloji Etütleri Dairesi, No, 34, Ankara, 1990.
  6. A. E. Akçay, M. Dönmez, H. Kara, A.