The physico-chemical diversity of pit lakes of the Muskau Arch (Western Poland) in the context of their evolution and genesis

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Abstract

In the vegetation seasons 2016–2017, a survey of 30 pit lakes localized in the eastern part of the Muskau Arch (Western Poland) was carried out. The aim of the study was to characterize the habitat conditions of the selected lakes, based on the physico-chemical water characteristics. We hypothesized that the age and genesis of pit lakes are the main factors responsible for their hydro-chemical diversity. Therefore, in each of the lakes 27 physico-chemical parameters and chlorophyll a were measured in the water surface, in the peak of the vegetation season (July–August). Additionally, they were described in terms of genesis, origin and age. The results showed that the investigated lakes display a high diversity of habitat conditions reflected in varied physico-chemical water properties (significant lake-to-lake differences). The parameters mostly responsible for the differences were: Secchi depth (transparency), pH, EC, colour, hardness, TP, TN, TC, Ca2+, Mg2+, Fe, Al, Mn, S and Chl a. The comparison of the type of excavated aggregate showed significant differences for four parameters only. Much greater differences were found for the genesis of lakes (mining method) – 15 of the 28 analysed parameters significantly differentiated the lakes. Further analysis showed that half of the studied parameters were significantly correlated with the age of the pit lakes. Our results suggest that in addition to natural changes, secondary human-caused transformations (mostly neutralization and fertilization of the water) were among the key factors responsible for the differentiation of the lakes.

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  • Baird R. Bridgewater L. 2017 Standard methods for the examination of water and wastewater American Public Health Association Washington.

  • Blanchette M.L. Lund M.A. 2016 Pit lakes are a global legacy of mining: an integrated approach to achieving sustainable ecosystems and value for communities Curr. Opin. Environ. Sustainability 23: 28–34.

  • Boehrer B. 2013 Physical properties of acidic pit lakes [in:] Geller W Schultze M Kleinmann R Wolkersdorfer C. (eds) Acidic pit lakes Springer Berlin-Heidelberg: 23–42.

  • Brugam R.B. Lusk M. 1986 Diatom evidence for neutralization in acid surface mine lakes [in:] Smol J.P. Battarbee R.W. Davis R.B Meriläinen J. (eds) Diatoms and lake acidity Dr W. Junk Publishers Dordrecht: 115–129.

  • Dawczyk G. Maciantowicz M. 2014 Dawne górnictwo i kolejnictwo na terenie Łuku Mużakowa – Aus der Geschichte des Bergbaus Und der Bahn im Muskauer Faltenbogen (Former mining and railway in the area of the Muskau Arch) Wydaw. Drukarnia Chroma Żary 90 pp (in Polish English summary).

  • Dojlido J. Best G.A. 1993 Chemistry of water and water pollution E. Horwood Ltd. New York 363 pp.

  • Friese K. Herzsprung P. Schultze M. 2013 Limnochemistry of water and sediments of acidic pit lakes [in:] Geller W Schultze M Kleinmann R Wolkersdorfer C. (eds) Acidic pit lakes Springer-Verlag Berlin-Heidelberg: 42–75.

  • Golterman H.L 1969 Methods for chemical analysis of fresh waters Blackwell Scientific Oxford-Edinburgh 172 pp.

  • Jędrczak A. 1992 Skład chemiczny wód pojezierza antropogenicznego w Łuku Mużakowskim (Chemical composition of the waters of the anthropogenic lakeland in the Muskau Arch) Wydaw. WSI Ziel. Góra Zielona Góra 132 pp (in Polish English summary).

  • Jędrczak A. Jachimko B. Najbar B. 1998 Zmiany fizyczno-chemicznych cech wód największego zbiornika meromiktycznego na pojezierzu antropogenicznym w okresie kilkunastu lat (Changes in the physico-chemical properties of water in the largest meromictic pit lakes in the anthropogenic lakeland over a dozen years) Zesz. Nauk. PZ – Inż. Środ. 116: 5–17 (in Polish English summary).

  • Kasztelewicz Z. 2012 Blaski i cienie górnictwa wêglowego w Polsce (Pros and cons of coal mining in Poland) Polityka Energetyczna 15(4): 7–27 (in Polish English summary).

  • Koschorreck M. Tittel J. 2002 Benthic photosynthesis in an acidic mining lake (pH 2.6) Limnol. Oceanogr. 47(4): 1197–1201.

  • Koźma J. 2016 Antropogeniczne zmiany krajobrazu związane z dawnym górnictwem węgla brunatnego na przykładzie polskiej części obszaru łuku Mużakowa (Anthropogenic landscape changes connected with the old brown coalmining based on the example of the Polish part of the Muskau Arch area) Gór. Odkryw. 57(4): 5–13 (in Polish English summary).

  • Koźma J. Kupetz M. 2008 The transboundary Geopark Muskau Arch Prz. Geol. 56(8/1): 692–698.

  • Kupetz M. 1997 Geologischer bau und genese der Stauchendmoräne Muskauer Faltenbogen (Geological structure and genesis oft he Muskau push moraine) Brandenburg. Geowiss. Beitr. 4(2): 1–20 (in German).

  • Lutyńska S. Labus L. 2015 Identification of processes controlling chemical composition of pit lakes waters located in the eastern part of Muskau Arch (Polish-German borderland) Arch. Environ. Prot. 41(3): 60–69.

  • Lessmann D. Uhlmann W. Gruyoungald U. Nixdorf B. 2003 Sustainability of the flooding of brown coal mining lakes as a remediation technique against acidification in the Lusatian mining district Germany [in:] Proceedings of the 6th International Conference on Acid Rock Drainage (ICARD) 14–17 July 2003 Cairns (Australia): 521–527.

  • Marszelewski W. Dembowska E.A. Napiórkowski P. Solarczyk A. 2017 Understanding abiotic and biotic conditions in post-mining pit lakes for efficient management: A case study (Poland) Mine Water Environ. 36(3): 418–428.

  • Matejczuk W. 1986 Charakterystyka ekologiczna zbiorników wodnych w wyrobiskach poeksploatacyjnych węgla brunatnego (Ecological characteristic of pit lakes in the coal mining excavations) [PhD Thesis] Politechnika Wrocławska Instyt. Inż. Ochr. Środ. Wrocław 122 pp (in Polish English summary).

  • Matejczuk W. 1989 Plankton poeksploatacyjnych zbiorników wodnych z rejonu Trzebiela (Plankton of the pit lakes in the mining excavations in Trzebiel area) [in:] Radkiewicz J. (ed.) Przyroda Środkowego Nadodrza Wydaw. WSP Ziel. Góra Zielona Góra: 93–118 (in Polish English summary).

  • Moser M. Weisse T. 2011 The most acidified Austrian lake in comparison to a neutralized mining lake Limnologica 41(4): 303–315.

  • Mostofa K.M.G. Yoshioka T. Mottaleb A. Vione D. 2013 Photobiogeochemistry of organic matter: Principles and practices in water environments Springer Berlin-Heidelberg 917 pp.

  • Najbar B. Jędrczak A. 1998 Stopień zeutrofizowania wód zbiorników pojezierza antropogenicznego (The scale of water eutrophication in the reservoirs of the anthropogenic lakeland) Zesz. Nauk. PZ – Inż. Środ. 116: 19–37 (in Polish English summary).

  • Nixdorf B. Wollmann K. Deneke R. 1998 Ecological potentials for planktonic development and food web interactions in extremely acidic mining lakes in Lusatia [in:] Geller W. Klapper H. Salomons W. (eds) Acidic mining lakes Springer Berlin-Heidelberg: 147–167.

  • Nixdorf B. Uhlmann W. Lessmann D. 2010 Potential for remediation of acidic mining lakes evaluated by hydrogeochemical modelling: Case study Grünewalder Lauch (Plessa 117 Lusatia/Germany) Limnologica 40: 167–174.

  • Rzymski P. Klimaszyk P. Marszelewski W. Borowiak D. Mleczek M. Nowiński K. Pius B. Niedzielski P. Poniedziałek B. 2017 The chemistry and toxicity of discharge waters from copper mine tailing impoundment in the valley of the Apuseni Mountains in Romania Environ. Sci. Pollut. Res. 24(26): 21445–21458.

  • Samecka-Cymerman A. Kempers A.J. 2004 Toxic metals in aquatic plants surviving in surface water polluted by copper mining industry Ecotoxicol. Environ. Saf. 59(1): 64–69.

  • Schultze M. Boehrer B. Kuehn B. Büttner O. 2002 Neutralisation of acidic mining lakes with river water Verh. Int.Verein. Limnol. 28: 936–939.

  • Schultze M. Boehrer B. 2008 Development of two meromictic pit lakes – a case study from the former brown coal mine Merseburg-Ost Germany [in:] Proc. of the 10th IMWA Congress: Mine Water and the Environment 2–5 June 2008 Karlovy Vary: 611–614.

  • Schultze M. Pokrandt K-H. Hille W. 2010 Pit lakes of the Central German brown coal mining district: Creation morphometry and water quality aspects Limnologica 40(2): 148–155.

  • Schultze M. Boehrer B. Geller W. 2013 Morphology Age and Development of Pit lakes [in:] Geller W. Schultze M. Kleinmann R. Wolkersdorfer C. (eds) Acidic pit lakes Springer Berlin-Heidelberg: 265–291.

  • Sienkiewicz E. Gąsiorowiski M. 2016 The evolution of a mining lake – From acidity to natural neutralization Sci. Total Environ. 557–558: 343–353.

  • Skoczyńska-Gajda S. Labus M. 2011 Metal speciation in river bed sediments within the Polish part of Muskau Arch Geopark Arch. Env. Protect. 37(3): 87–92.

  • Wendt-Potthoff K. Frommichen R. Herzsprung P. Koschorreck M. 2002 Microbial Fe(III) reduction in acidic mining lake sediments after addition of an organic substrate and lime Water Air Soil Pollut. Focus 2(3): 81–96.

  • Wetzel R.G. 2001 Limnology: Lake and river ecosystems Academic Press San Diego 1006 pp.

  • Zioła-Frankowska A. Frankowski M. 2017 Determination of selected metals in wines using inductively coupled plasma optical emission spectrometry with mini torch Food Anal. Methods 10(1): 180–190.

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