Reconstruction of post-mining attenuation of heavy metal pollution in sediment of the Zlatý Potok, Eastern Sudety Mts

Carpathian Journal of Earth and Environmental Sciences

Volumn 9, Issue 4, 2014, Pages 109-120

  Ciszewski, Dariusz ^a,b   Bijata, Pawel ^a,b   Klimek, Kazimierz ^a,b  

^a AGH UNIVERSITY OF SCIENCE AND TECHNOLOGY   (Poland)

^b UNIVERSITY OF SILESIA   (Poland)

Author keywords

Heavy metals; Mine restoration; Mining; Pollution; River; Sediment

Indexed keywords

ENVIRONMENTAL RESTORATION; FLUVIAL DEPOSIT; HEAVY METAL; MINING; OVERBANK SEDIMENT; RECONSTRUCTION; SEDIMENT POLLUTION; VERTICAL PROFILE;

CZECH REPUBLIC; POLAND; SUDETES;

EID: 84908452521     PISSN: 18424090     EISSN: 1844489X     Source Type: Journal    
DOI: None     Document Type: Article

References (26)

1. Bernatik L., 2004. Contemporary mining in the Zlate Hory ore district. In: Zlate Hory ore district, collection of articles from the international conference 18-20 10 2004 held in Zlaté Hory, 79-83, (In Czech).
2. Bielec-Bakowska Z., 2002. Spatial differentiation and long term variability of thunderstorms occurence in Poland (1949-1998). U.S. Katowice 151p, (In Polish).
3. Bird G., Brewer P.A., Macklin M.G., Balteanu D., Serban M., Driga B. & Zaharia S., 2008. River system recovery following to the Novat-Rosu tailings dam failure, Maramures, County, Romania. Applied Geochemistry, 23, 3498-3518.
4. Black A., Craw D., Youngson J.H. & Karubaba J., 2004. Natural recovery rates of a river system impacted by mine tailing discharge: Shag River, east Otago, New Zealand. Journal of Geochemical Exploration, 84, 21-34.
5. Byrne P., Wood P.J. & Reid I., 2012. The impairment of river systems by metal mine contamination: a review including remediation options. Environmental Sciences and Technology, 42, 2017-2077.
6. Ciszewski D., Czajka A. & Blazej S., 2008. Rapid migration of heavy metals and (137)Cs in alluvial sediments, Upper Odra River valley, Poland. Environmental Geology, 55, 7, 1577-1586.
7. Ciszewski D. & Turner J., 2009. Storage of sediment-associated heavy metals along the channelized Odra River, Poland. Earth Surface Processes and Landforms, 34, 558-572.
8. Ciszewski D., Kubsik U. & Aleksander-Kwaterczak U., 2012. Long-term dispersal of heavy metals in a catchment affected by historic lead and zinc mining. Journal of Soils and Sediments, 12, 9, 1445-1462.
9. Grosbois C., Meybeck M., Lestel L., Lefevre I. & Moatar F., 2012. Severe and contrasted polymetallic contamination patterns (1900-2009) in the Loire River sediments (France). Science of the Total Environment, 435-436, 290-305.
10. Grygar T.M., Sedlacek J., Babek O., Novakova T., Strnad L. & Mihaljevic M., 2012. Regional contamination of Moravia (south-eastern Czech Republic): temporal shift of Pb and Zn loading in fluvial sediments. Water, Air, Soil Pollution, 223, 739-753.
11. Hurkamp K., Raab T. & Volkel J., 2009. Lead pollution of floodplain soils in a historic mining area-age, distribution and binding forms. Water, Air and Soil Pollution, 201, 331-345.
12. Jirasek J. & Hrabalek J., 2007. Gold deposits in the Czech Republic: Past, Present and Future. Geoturystyka, 8, 7-20.
13. Klimek K., 2010. Past and present interaction between the catchment and the valley floor: upper Osoblaha basin, NE Sudetes slope and foreland. Quaternary International, 220, 112-121.
14. Lis J. & Pasieczna A., 1995. Geochemical Atlas of Poland, PIG, Warszawa.
15. Lokas E., Wachniew P., Ciszewski D., Owczarek P. & Chau N.D., 2010 Simultaneous use of trace metals, 210Pb and 137Cs in floodplain sediments of a lowland river as indicators of anthropogenic impacts. Water, Air and Soil Pollution, 207, 1, 57-71.
16. de Mahiques M.M., Figueira R.C.L., Salaroli A., B., Alves D.P.V. & Goncalves C., 2013. 150 years of anthropogenic metal input in a biosphere reserve: the case study of the Cananeia-Iguape coastal system, southeastern Brazil. Environmental Earth Sciences, 68:1073-1087.
17. Majerova L., Matys Grygar T., Elznicova J. & Strnad L., 2013. The differentiation between point and diffuse industrial pollution of the floodplain of the Plucnice River, Czech Republic. Water, Air, Soil Pollution, 224, 1687-1707.
18. Moore J.N. & Langner H.W., 2012. Can a river heal itself? Natural attenuation of metal contamination in river sediment. Environmental Science and Technology, 46, 2616-2623.
19. Nguyen H.L., Braun M., Szaloki I., Baeyens W., Van Grieken R. & Leermakers M., 2009. Tracing the metal pollution history of the Tisza River through the analysis of a sediment depth profile. Water, Air, Soil Pollution, 200, 119-132.
20. Polach D. & Gaba Z., 1998. History of flooding in Šumperk and Jesenice districts. Severni Morava, 75, 3-29, (In Czech).
21. Safar J. (ed.), 2003. The Olomouc Region. Praha, 554p, (In Czech).
22. Schindler M. & Kamber B.S, 2013. High-resolution lake sediment reconstruction of industrial impact in a world-class mining and smelting center, Sudbury, Ontario, Canada. Applied Geochemistry, 37, 102-116.
23. Tisnovska V., 2004. Monitoring of waters in Zlate Hory ore district. Zlate Hory ore district, collection of articles from the international conference 18-20 10 2004 held in Zlaté Hory, 84-87, (In Czech).
24. Večeřa J. & Večeřova J., 2010. History of mines in Zlate Hory ore district. PINKA, Jesenik, 98p, (In Czech).
25. Wyzga B. & Ciszewski D., 2010. Hydraulic controls on the entrapment of heavy metal-polluted sediments on a floodplain of variable width, the upper Vistula River, southern Poland. Geomorphology, 117, 272-286.
26. Žak K., Rohovec J. & Navratil T., 2009. Fluxes of heavy metals from highly polluted watershed during flood events: a case study of the Litavka River, Czech Republic. Water, Air and Soil Pollution, 203, 343-358.