The Isolation and Purification of Sulfur Bacteria Originated from Stockpiling Area of Pyritic Smelting Solidwaste

Article Preview

Abstract:

It was found that there were some kinds of sulfur-oxidizing bacteria in the acidic mine water, and these bacteria could promote the dissolution behavior of heavy metals in the mining smelting waste slags. In this paper we collected a bacterium sample form a mining-water of an abandoned pyrite mine in the southwest of China and named it as FJ strain. We isolated and purified the FJ strain by 9K medium, and then made a primary identification of the purified strain. The FJ strain was gram-negative and in the shape of short rod. The strain was chemoautotrophic and aerobic bacterium, and it could oxidize the ferrous ion or the reduced sulfur as energy source to main the metabolism. The optimum growth temperature and pH is 30 °C and 2.0 separately. And we also found the strain had a considerable acid-producing ability and was eosinophilic. After a comparison and analysis, we confirmed that the physiological and biochemical characteristics of the isolated FJ strains were consistent with that of thiobacillus ferrooxidans, T ferroxidans for short. Therefore we drew a conclusion that the FJ strain we purified was just the target strains T ferrooxidans, the isolation-purification of the bacterium sample was successive.

You might also be interested in these eBooks

Info:

Periodical:

Advanced Materials Research (Volumes 183-185)

Pages:

484-488

Citation:

Online since:

January 2011

Export:

Price:

Permissions CCC:

Permissions PLS:

Сopyright:

© 2011 Trans Tech Publications Ltd. All Rights Reserved

Share:

Citation:

[1] Sun Y., Zhou Q., Xie X. et al.: Journal of Hazardous Materials Vol174P. 455.

Google Scholar

[2] Meybeck M., Lestel L., Bont P. et al.: Science of The Total Environment Vol375(2007),P. 204.

Google Scholar

[3] Chen Y. X., Lin Q., Luo Y. M. et al.: Chemosphere Vol50(2003),P. 807.

Google Scholar

[4] Liu Y. -G., Zhou M., Zeng G. -M. et al.: Journal of Hazardous Materials Vol141(2007),P. 202.

Google Scholar

[5] Crannell B. S., Eighmy T. T., Krzanowski J. E. et al.: Waste Management Vol20(2000),P. 135.

Google Scholar

[6] Sasaki K., Tsunekawa M., Ohtsuka T. et al.: Colloids and Surfaces A: Physicochemical and Engineering Aspects Vol133(1998),P. 269.

Google Scholar

[7] Schippers A., Breuker A., Blazejak A. et al.: Hydrometallurgy Vol104P. 342.

Google Scholar

[8] Lombardi A. T. and Garcia O.: Water Research Vol36(2002),P. 3193.

Google Scholar

[9] Zaihai Zhang and Dingzuo Wang: Hydrometallurgy of China Vol19(2000),P. 16.

Google Scholar

[10] Shi S. -y., Fang Z. -h. and Ni J. -r.: Process Biochemistry Vol41(2006),P. 438.

Google Scholar

[11] Sadowski Z., Jazdzyk E. and Karas H.: Minerals Engineering Vol16(2003),P. 51.

Google Scholar

[12] Zhang Y. -s., Qin W. -q., Wang J. et al.: Transactions of Nonferrous Metals Society of China Vol18(2008),P. 1491.

Google Scholar

[13] Xia L. -x., Liu J. -s., Xiao L. et al.: Transactions of Nonferrous Metals Society of China Vol18(2008),P. 190.

Google Scholar

[14] Watling H. R.: Hydrometallurgy Vol84(2006),P. 81.

Google Scholar

[15] Zeng W. -M., Zhou H. -B., Wan M. -X. et al.: Hydrometallurgy Vol96(2009),P. 333.

Google Scholar

[16] Cheng Y., Guo Z., Liu X. et al.: Bioresource Technology Vol100(2009),P. 2737.

Google Scholar

[17] Takeuchi F., Iwahori K., Kamimura K. et al.: Journal of Bioscience and Bioengineering Vol88(1999),P. 387.

Google Scholar

[18] Ng K. Y., Kamimura K. and Sugio T.: Journal of Bioscience and Bioengineering Vol90(2000),P. 193.

Google Scholar

[19] Zhou J. -k., Qin W. -q., Niu Y. -j. et al.: Transactions of Nonferrous Metals Society of China Vol16(2006),P. 927.

Google Scholar

[20] Oprime M. E. A. G., Garcia Jr O. and Cardoso A. A.: Process Biochemistry Vol37(2001),P. 111.

Google Scholar