铀
生物修复
生物累积
生物吸附
食物链
生物矿化
环境化学
污染
环境科学
环境修复
放射性废物
环境污染
贫化铀
污染
化学
生物
天体生物学
生态学
环境保护
吸附
材料科学
冶金
有机化学
吸附
核化学
作者
Tom Rogiers,Rob Van Houdt,Adam Williamson,Natalie Leys,Nico Boon,Kristel Mijnendonckx
标识
DOI:10.3389/fmicb.2022.822197
摘要
Environmental uranium pollution due to industries producing naturally occurring radioactive material or nuclear accidents and releases is a global concern. Uranium is hazardous for ecosystems as well as for humans when accumulated through the food chain, through contaminated groundwater and potable water sources, or through inhalation. In particular, uranium pollution pressures microbial communities, which are essential for healthy ecosystems. In turn, microorganisms can influence the mobility and toxicity of uranium through processes like biosorption, bioreduction, biomineralization, and bioaccumulation. These processes were characterized by studying the interaction of different bacteria with uranium. However, most studies unraveling the underlying molecular mechanisms originate from the last decade. Molecular mechanisms help to understand how bacteria interact with radionuclides in the environment. Furthermore, knowledge on these underlying mechanisms could be exploited to improve bioremediation technologies. Here, we review the current knowledge on bacterial uranium resistance and how this could be used for bioremediation applications.
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