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来自某 former uranium mining area 的耐金属和盐微生物分离株的生物吸附。它们对酸性矿山排水中稀土元素模式变化的影响。 注:“former uranium mining area” 直译为“前铀矿区”,但结合语境可能有更合适的意译表述,比如“废弃铀矿区”等,这里保留原文是为了忠实于原文翻译要求。

Biosorption of metal and salt tolerant microbial isolates from a former uranium mining area. Their impact on changes in rare earth element patterns in acid mine drainage.

作者信息

Haferburg Götz, Merten Dirk, Büchel Georg, Kothe Erika

机构信息

Friedrich Schiller University, Institute of Microbiology, Jena, Germany.

出版信息

J Basic Microbiol. 2007 Dec;47(6):474-84. doi: 10.1002/jobm.200700256.

DOI:10.1002/jobm.200700256
PMID:18072248
Abstract

The concentration of metals in microbial habitats influenced by mining operations can reach enormous values. Worldwide, much emphasis is placed on the research of resistance and biosorptive capacities of microorganisms suitable for bioremediation purposes. Using a collection of isolates from a former uranium mining area in Eastern Thuringia, Germany, this study presents three Gram-positive bacterial strains with distinct metal tolerances. These strains were identified as members of the genera Bacillus, Micrococcus and Streptomyces. Acid mine drainage (AMD) originating from the same mining area is characterized by high metal concentrations of a broad range of elements and a very low pH. AMD was analyzed and used as incubation solution. The sorption of rare earth elements (REE), aluminum, cobalt, copper, manganese, nickel, strontium, and uranium through selected strains was studied during a time course of four weeks. Biosorption was investigated after one hour, one week and four weeks by analyzing the concentrations of metals in supernatant and biomass. Additionally, dead biomass was investigated after four weeks of incubation. The maximum of metal removal was reached after one week. Up to 80% of both Al and Cu, and more than 60% of U was shown to be removed from the solution. High concentrations of metals could be bound to the biomass, as for example 2.2 mg/g U. The strains could survive four weeks of incubation. Distinct and different patterns of rare earth elements of the inoculated and non-inoculated AMD water were observed. Changes in REE patterns hint at different binding types of heavy metals regarding incubation time and metabolic activity of the cells.

摘要

受采矿作业影响的微生物栖息地中的金属浓度可达到极高值。在全球范围内,人们非常重视对适用于生物修复目的的微生物的抗性和生物吸附能力的研究。本研究使用从德国图林根州东部一个 former uranium mining area 分离得到的菌株集合,展示了三株具有不同金属耐受性的革兰氏阳性细菌菌株。这些菌株被鉴定为芽孢杆菌属、微球菌属和链霉菌属的成员。源自同一矿区的酸性矿山排水(AMD)的特点是多种元素的金属浓度高且pH值极低。对AMD进行了分析并用作孵育溶液。在四周的时间过程中研究了所选菌株对稀土元素(REE)、铝、钴、铜、锰、镍、锶和铀的吸附。通过分析上清液和生物量中的金属浓度,在1小时、1周和4周后研究生物吸附。此外,在孵育4周后研究了死亡生物量。1周后达到了最大的金属去除量。溶液中高达80%的铝和铜以及超过60%的铀被去除。高浓度的金属可以与生物量结合,例如2.2 mg/g铀。这些菌株可以在孵育4周后存活。观察到接种和未接种的AMD水中稀土元素的明显不同模式。稀土元素模式的变化暗示了重金属在孵育时间和细胞代谢活性方面的不同结合类型。

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Biosorption of metal and salt tolerant microbial isolates from a former uranium mining area. Their impact on changes in rare earth element patterns in acid mine drainage.来自某 former uranium mining area 的耐金属和盐微生物分离株的生物吸附。它们对酸性矿山排水中稀土元素模式变化的影响。 注:“former uranium mining area” 直译为“前铀矿区”,但结合语境可能有更合适的意译表述,比如“废弃铀矿区”等,这里保留原文是为了忠实于原文翻译要求。
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