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Epsilon-Fe2O3 is a novel intermediate for magnetite biosynthesis in magnetotactic bacteria

机译:Epsilon-Fe2O3是趋磁细菌中磁铁矿生物合成的新型中间体

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摘要

BackgroundNatural biological magnetite nanoparticles are widely distributed from microorganisms to humans. It is found to be very important in organisms, especially in navigation. Moreover, purified magnetite nanoparticles also have potential applications in bioengineering and biomedicine. Magnetotactic bacteria (MTB) is considered one of the most abundant species around the world which can form intracellular membrane enveloped magnetic nanoparticles, referred to as magnetosomes. To our knowledge, the biomineralization of magnetosome in MTB involves a serious of genes located on a large unstable genomic region named magnetosome island, which specially exists in MTB. The magnetite core of magnetosome formed via a Fe (III) ion intermediates, for instance, α-Fe2O3 and ferrihydrite. Though the biosynthesis of magnetosome represents a general biomineralization mechanism of biogenic magnetite, knowledge of magnetosome biosynthesis and biomineralization remains very limited.
机译:背景技术天然生物磁铁矿纳米颗粒从微生物广泛分布到人类。发现它在生物中非常重要,尤其是在航行中。此外,纯化的磁铁矿纳米颗粒在生物工程和生物医学中也具有潜在的应用。趋磁细菌(MTB)被认为是世界上最丰富的物种之一,可以形成被胞内膜包裹的磁性纳米颗粒,称为磁小体。据我们所知,MTB中磁小体的生物矿化涉及大量基因,这些基因位于一个大的不稳定基因组区域内,称为Magosome Island,特别是在MTB中。磁小体的磁铁矿芯是通过Fe(III)离子中间体(例如α-Fe2O3和三水铁矿)形成的。尽管磁小体的生物合成代表了生物磁铁矿的一般生物矿化机制,但是对磁小体生物合成和生物矿化的知识仍然非常有限。

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