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真菌诱导的磷酸铀生物矿化。

Uranium phosphate biomineralization by fungi.

机构信息

Geomicrobiology Group, College of Life Sciences, University of Dundee, Dundee, DD1 5EH, Scotland, UK.

The James Hutton Institute, Craigiebuckler, Aberdeen, AB15 8QH, Scotland, UK.

出版信息

Environ Microbiol. 2015 Jun;17(6):2064-75. doi: 10.1111/1462-2920.12771. Epub 2015 Mar 10.

DOI:10.1111/1462-2920.12771
PMID:25580878
Abstract

Geoactive soil fungi were investigated for phosphatase-mediated uranium precipitation during growth on an organic phosphorus source. Aspergillus niger and Paecilomyces javanicus were grown on modified Czapek-Dox medium amended with glycerol 2-phosphate (G2P) as sole P source and uranium nitrate. Both organisms showed reduced growth on uranium-containing media but were able to extensively precipitate uranium and phosphorus-containing minerals on hyphal surfaces, and these were identified by X-ray powder diffraction as uranyl phosphate species, including potassium uranyl phosphate hydrate (KPUO6 .3H2 O), meta-ankoleite [(K1.7 Ba0.2 )(UO2 )2 (PO4 )2 .6H2 O], uranyl phosphate hydrate [(UO2 )3 (PO4 )2 .4H2 O], meta-ankoleite (K(UO2 )(PO4 ).3H2 O), uramphite (NH4 UO2 PO4 .3H2 O) and chernikovite [(H3 O)2 (UO2 )2 (PO4 )2 .6H2 O]. Some minerals with a morphology similar to bacterial hydrogen uranyl phosphate were detected on A. niger biomass. Geochemical modelling confirmed the complexity of uranium speciation, and the presence of meta-ankoleite, uramphite and uranyl phosphate hydrate between pH 3 and 8 closely matched the experimental data, with potassium as the dominant cation. We have therefore demonstrated that fungi can precipitate U-containing phosphate biominerals when grown with an organic source of P, with the hyphal matrix serving to localize the resultant uranium minerals. The findings throw further light on potential fungal roles in U and P biogeochemistry as well as the application of these mechanisms for element recovery or bioremediation.

摘要

研究了地活性土壤真菌在以甘油-2-磷酸(G2P)为唯一磷源和硝酸铀生长过程中通过磷酸酶介导的铀沉淀。黑曲霉和棘孢木霉在添加甘油-2-磷酸(G2P)的改良 Czapek-Dox 培养基上生长,并用硝酸铀作为唯一的铀源。这两种生物在含铀培养基中的生长都受到抑制,但能够在菌丝表面广泛沉淀铀和磷矿物,通过 X 射线粉末衍射鉴定为铀磷酸盐物种,包括磷酸氧铀钾六水合物(KPUO6.3H2 O)、偏铀酸钡钾六水合物[(K1.7 Ba0.2 )(UO2 )2 (PO4 )2.6H2 O]、磷酸氧铀六水合物[(UO2 )3 (PO4 )2.4H2 O]、偏铀酸钡钾三水合物[K(UO2 )(PO4 ).3H2 O]、铀磷铵六水合物[NH4 UO2 PO4.3H2 O]和水磷铀矿六水合物[(H3 O)2 (UO2 )2 (PO4 )2.6H2 O]。在黑曲霉生物量上检测到一些形态类似于细菌氢铀磷酸盐的矿物。地球化学模拟证实了铀形态的复杂性,在 pH 值为 3 至 8 之间存在偏铀酸钡钾、铀磷铵六水合物和磷酸氧铀六水合物,钾是主要阳离子。因此,我们证明了真菌在以有机磷源生长时可以沉淀含铀磷酸盐生物矿物,菌丝基质起到了定位铀矿物的作用。这些发现进一步揭示了真菌在铀和磷生物地球化学中的潜在作用,以及这些机制在元素回收或生物修复中的应用。

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