Journals / Atmospheric Pollution Research / 2019 / Cilt: 10 - Sayı: 1

Using stinging nettle (Urtica dioicaL.) to assess the influence of long termemission upon pollution with metals of the Tatra National Park area(Poland)

Pages
73–79
DOI
—
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AI Summary & Key Takeaways

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

We concluded that despite frequently small resources of bioa-vailable compounds of these metals in the ground, the soil is an important source of copper, zinc and manganesein stinging nettle.

📌 3 Key Takeaways

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Objective & Hypothesis:Stinging nettle samples, soil samples and dust fall samples were collected from three stands (the ChochołowskaValley, the Strążyska Valley and Morskie Oko), located in the area of the Tatra National Park (South Poland) andsubjected to determination of the contents of 8 metals (iron, manganese, zinc, copper, lead, cadmium, nickel andchrome) using the atomic absorption spectrometry method.
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Key Findings & Data:Accumulation of the tested metals in nettle wasusually different and depending on the morphological part of a plant and the testing place it was for the par-ticular elements as follows (mg kg-1): Fe - 27–305, Mn - 17–46, Zn - 12–49, Cu - 2,8–10,6, Pb - 0,07-0,91, Cd -0,15-0,86, Ni - 0,31-0,91 and Cr - 0,00-0,49.
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Conclusion & Impact:We concluded that despite frequently small resources of bioa-vailable compounds of these metals in the ground, the soil is an important source of copper, zinc and manganesein stinging nettle.
🔬Design:Research Article
📍Scope:Comprehensive Sample
⚙️Variables:Domain Parameters

Özet

Stinging nettle samples, soil samples and dust fall samples were collected from three stands (the ChochołowskaValley, the Strążyska Valley and Morskie Oko), located in the area of the Tatra National Park (South Poland) andsubjected to determination of the contents of 8 metals (iron, manganese, zinc, copper, lead, cadmium, nickel andchrome) using the atomic absorption spectrometry method. The aim of this work was to determine metalcontaminations in soil, dust fall and stinging nettle growing in the above mentioned area and to determine theinfluence of the long term emission upon these contaminations. Accumulation of the tested metals in nettle wasusually different and depending on the morphological part of a plant and the testing place it was for the par-ticular elements as follows (mg kg-1): Fe - 27–305, Mn - 17–46, Zn - 12–49, Cu - 2,8–10,6, Pb - 0,07-0,91, Cd -0,15-0,86, Ni - 0,31-0,91 and Cr - 0,00-0,49. We concluded that despite frequently small resources of bioa-vailable compounds of these metals in the ground, the soil is an important source of copper, zinc and manganesein stinging nettle. Additionally, long term emission is a significant source of elements introduced into the naturalenvironment of the Tatra National Park. The highest content of soluble compounds of all the tested metals in thedustflowing from the south of the country and of most metals from the west in the Chochołowska Valley, thelatter remaining under the influence of long term emission, indicate that the area of the Tatra National Park ispolluted mainly by the bioavailable metal compounds present in the long term industrial emission coming fromthe territory of Slovakia and the Czech Republic.

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Cite This Article

PAUKSZTO, A., MİROSLAWSKİ, J. (2019). Using stinging nettle (Urtica dioicaL.) to assess the influence of long termemission upon pollution with metals of the Tatra National Park area(Poland). Atmospheric Pollution Research, Cilt: 10 - Sayı: 1, 73–79. https://ajindex.com/articles/351566

References (5)

  1. Buat-Mendrot, P., Chesselet, R., 1978. Variable influenced of the atmosphericflux 2 onthe trace metal chemistry of oceanic suspended matter. Earth Planet Sci. Lett. 42,398–411.
  2. Celik, I., Tuluce, Y., 2007. Elevation protective role ofCamellia sinensisandUrtica dioicainfusion against trichloroacetic acid-exposed in rats. Phytother Res. 21 (11),1039–1044. Ciepał, R., Palowski, B.,Łukasik, I., 2001. Contamination of nature reserves in the silesianBeskid Mts. by heavy metals and sulphur. In: German, K., Balon, J. (Eds.), Book:Transformation of the Natural Environment of Poland and its Functioning. IGiGP UJ,Cracow, pp. 736–741 [In Polish]. Kanter, M., Coskun, O., Budancamanak, M., 2005. Hepatoprotective effects ofNigellasativaL. andUrtica dioicaL. on lipid peroxidation, antioxidant enzyme systems andliver enzymes in carbon tetrachloride-treated rats. World J. Gastroenterol. 11 (42),6684–6688.
  3. Kowol, J., Kwapuliński, J., Paukszto, A., Gromulska, E., Goszyk, E., 2006. Concentrationof heavy metals in the dust deposited on the coltsfoot and stinging nettle leaves in theVistula area. Pol. J. Environ. Stud. 15, 381–384. Kwapuliński, J., Mirosławski, J., Kalita, T., 1986. Usability of directional dust sampler forestimating the air pollution. Environ. Protect. Eng. 4, 81–87. Kwapuliński, J., Kowol, J., Sarosiek, J., Maksym, B., 2000. The cationic equilibrium ofheavy metals inUrtica dioica, collected in the Giant Mountains and in the Beskids.Opera Corcontica Krkonosske Prace 37, 265–268. Kwapuliński, J., Kowol, J., Brodziak, B., Bogunia, M., 2001. Cationic equilibrium instinging nettle. Sci. Bull. Univ. Warmia Mazury. 12, 253–266 [In Polish]. Lis, J., Piaseczna, A., 1995. Geochemical Atlas of Upper Silesia. State Geological Institute,Warsaw [In Polish]. Łaszewska, A., Kowol, J., Wiechuła, D., Kwapuliński, J., 2007. Metal accumulation in theselected medicinal plants in the region of BeskidŚląski and BeskidŻywiecki. ProblEcol. 11 (6), 285–291 [In Polish]. Mihajev, E., Ivkov-Baloa, M., Cupić, E., Jaksić, S., 2014. Levels of some microelementsandessential heavy metals in herbal teas in Serbia. Sci. Total Environ. 192, 31–39.
  4. Mill, W., 2004. Transboundary air pollution with acidogenic substances with special re-gard to Silesia. Probl Ecol. 8 (6), 296–299 [In Polish]. Otte, M.L., Wijte, A.H.B.M., 1993. Environmental variation between habitats and uptakeof heavy metals byUrtica dioica. Environ. Monit. Assess. 28, 263–275.
  5. Paukszto, A., Kowol, J., Kwapuliński, J., Rochel, R., M