The qualitative and quantitative microbiota structure identified in the Bozanta Mare tailing pond

The qualitative and quantitative microbiota structure identified in the Bozanta Mare tailing pond

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Title: The qualitative and quantitative microbiota structure identified in the Bozanta Mare tailing pond
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Article_Title: The qualitative and quantitative microbiota structure identified in the Bozanta Mare tailing pond
Authors: Zorica Vosgan, Monica Marian, Anca Peter, Camelia Nicula, Anca Mihaly-Cozmuta, Leonard Mihaly-Cozmuta
Affiliation: North University of Baia Mare
Abstract: Tailing pond, produced from extraction and processing of heavy metals ores, not only damage native vegetation, thus leading to large areas of derelict land, but are also sources of metal contaminants in local water, air and land. Microorganisms can be important biosorbents for heavy metal remediation of contaminated soils and wastewaters. The presence of some beneficial fungi stimulated plant growth and protected the plant from metal toxicity. To establish the appropriate bioremediation method, we identified some fungi and bacteria species localized in different points and at different depths.
Keywords: tailing ponds, CFU (colony forming units), microflora, bioremediation, metal toxicity
References: Carmen Beinsan, Giannin Mosoarca, Radu Sumalan, Dorin Camen, Petru Negren ,Adina Negrea, Studies regarding tailings pond seepage water from mining activities over Avena sativa L. Germination influence, Vol 37, No 1 (2009).
Corry, J.E.L.,1987. Relationships of water activity to fungal growth. In: Benchant,L.R.(Ed.), Food and Beverage Mycology.AVI Pub.Co., Philadelphia, pp.51-99.
Jelea, M., Jelea, S., G., Kovacs, S., M., Gheta, D., E., Research concerning the oxidation degree of the sulphidic tailings from the Novat tailings storage facility, Carpth. J. Of Earth and Environmental Sciences, 2007, Vol. 2, No. 2, p. 45 – 57.
Johannes Rousk, Philip C. Brookes, and Erland Bååth, Contrasting soil ph effects on fungal and bacterial growth suggest functional redundancy in carbon mineralization, Applied and Environmental Microbiology, March 2009, p. 1589-1596, Vol. 75, No. 6.
K. R. Shashidhar,T. K. Narayanaswamy,R. N. Bhaskar,B. R. Jagadish, M. Mahesh, K. S. Krishna. Influence of organic based nutrients on soil health and mulberry (Morus indica L.) Production ejournal of biological Sciences Volume: 1, Issue 1 (December 2009).
M.O. Mendez and R.M. Maier, Phytostabilization of mine tailings in arid and semiarid environments – an emerging remediation technology, Environmental Health Perspectives 116 (2008), pp. 278–283.
Monica Marian, Camelia Varga, Leonard Mihaly- Cozmuta, Anca Mihaly-Cozmuta Evaluation of the phitoremediation potential of the Salix caprea in tailing, 2009, Analele Universitatii din Oradea, Ed. Universitatii din Oradea, Tom XIV. ISSN 1224 – 5119 – p. 141-149.
Monica O. Mendez, Edward P. Glenn, and Raina M. Maier. Phytostabilization Potential of Quailbush for Mine Tailings: Growth, Metal Accumulation, and Microbial Community Changes. 2007.
Ryszka, P., Turnau Katarzyna, (2007), Arbuscular mycorrhiza of introduced and native grasses colonizing zinc wastes: implications for restoration practices. Plant soil, Springer Science+ businessmedia B.V. 2007.
Schippers, A., P.G. Jozsa, W. Sand, Z.M. Kovacs, and M. Jelea. 2000. Microbiological pyrite oxidation in a mine tailings heap and its relevance to the death of vegetation. Geomicrobiol. J. 17:151–162.
Shaheen Zafar, Farrukh Aqil, Iqbal Ahmad, Metal tolerance and biosorption potential of filamentous fungi isolated from metal contaminated agricultural soil , Bioresource Technology, September 2007,
Pages 2557-2561.
Southam, G., and T.J. Beveridge. 1993. Examination of lipopolysac-charide(O-antigen) populations of Thiobacillus ferrooxidans fromtwo mine tailings. Appl. Environ. Microbiol. 59:1283–1288.
Spriniti, M., Zhuang, H., Trujillo, E.M., 1995. Evaluation of immobilized biomass beads for removing heavy metals from wastewater.Water Environ.Res.67(6),943-954.
Stevenson, F.J., and M.A. Cole, Cycles of soil: Carbon, nitrogen, phosphorus, sulfur, micronutrients. John Wiley & Sons, New York 1999.
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Article Title: The qualitative and quantitative microbiota structure identified in the Bozanta Mare tailing pond
Authors: Zorica Vosgan, Monica Marian, Anca Peter, Camelia Nicula, Anca Mihaly-Cozmuta, Leonard Mihaly-Cozmuta
Affiliation: North University of Baia Mare
Abstract: Tailing pond, produced from extraction and processing of heavy metals ores, not only damage native vegetation, thus leading to large areas of derelict land, but are also sources of metal contaminants in local water, air and land. Microorganisms can be important biosorbents for heavy metal remediation of contaminated soils and wastewaters. The presence of some beneficial fungi stimulated plant growth and protected the plant from metal toxicity. To establish the appropriate bioremediation method, we identified some fungi and bacteria species localized in different points and at different depths.
Keywords: tailing ponds, CFU (colony forming units), microflora, bioremediation, metal toxicity
References: Carmen Beinsan, Giannin Mosoarca, Radu Sumalan, Dorin Camen, Petru Negren ,Adina Negrea, Studies regarding tailings pond seepage water from mining activities over Avena sativa L. Germination
influence, Vol 37, No 1 (2009).
Corry, J.E.L.,1987. Relationships of water activity to fungal growth. In: Benchant,L.R.(Ed.), Food and Beverage Mycology.AVI Pub.Co., Philadelphia, pp.51-99.
Jelea, M., Jelea, S., G., Kovacs, S., M., Gheta, D., E., Research concerning the oxidation degree of the sulphidic tailings from the Novat tailings storage facility, Carpth. J. Of Earth and Environmental Sciences, 2007, Vol. 2, No. 2, p. 45 – 57.
Johannes Rousk, Philip C. Brookes, and Erland Bååth, Contrasting soil ph effects on fungal and bacterial growth suggest functional redundancy in carbon mineralization, Applied and Environmental Microbiology, March 2009, p. 1589-1596, Vol. 75, No. 6.
K. R. Shashidhar,T. K. Narayanaswamy,R. N. Bhaskar,B. R. Jagadish, M. Mahesh, K. S. Krishna. Influence of organic based nutrients on soil health and mulberry (Morus indica L.) Production ejournal of biological Sciences Volume: 1, Issue 1 (December 2009).
M.O. Mendez and R.M. Maier, Phytostabilization of mine tailings in arid and semiarid environments – an emerging remediation technology, Environmental Health Perspectives 116 (2008), pp. 278–283.
Monica Marian, Camelia Varga, Leonard Mihaly- Cozmuta, Anca Mihaly-Cozmuta Evaluation of the phitoremediation potential of the Salix caprea in tailing, 2009, Analele Universitatii din Oradea, Ed. Universitatii din Oradea, Tom XIV. ISSN 1224 – 5119 – p. 141-149.
Monica O. Mendez, Edward P. Glenn, and Raina M. Maier. Phytostabilization Potential of Quailbush for Mine Tailings: Growth, Metal Accumulation, and Microbial Community Changes. 2007.
Ryszka, P., Turnau Katarzyna, (2007), Arbuscular mycorrhiza of introduced and native grasses colonizing zinc wastes: implications for restoration practices. Plant soil, Springer Science+businessmedia B.V. 2007.
Schippers, A., P.G. Jozsa, W. Sand, Z.M. Kovacs, and M. Jelea. 2000. Microbiological pyrite oxidation in a mine tailings heap and its relevance to the death of vegetation. Geomicrobiol. J. 17:151–162.
Shaheen Zafar, Farrukh Aqil, Iqbal Ahmad, Metal tolerance and biosorption potential of filamentous fungi isolated from metal contaminated agricultural soil , Bioresource Technology, September 2007, Pages 2557-2561.
Southam, G., and T.J. Beveridge. 1993. Examination of lipopolysac-charide(O-antigen) populations of
Thiobacillus ferrooxidans fromtwo mine tailings. Appl. Environ. Microbiol. 59:1283–1288.
Spriniti, M., Zhuang, H., Trujillo, E.M., 1995. Evaluation of immobilized biomass beads for removing heavy metals from wastewater.Water Environ.Res.67(6),943-954.
Stevenson, F.J., and M.A. Cole, Cycles of soil: Carbon, nitrogen, phosphorus, sulfur, micronutrients. John Wiley & Sons, New York 1999.
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