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黑曲霉对独居石的生物浸出和生物风化:稀土元素的溶解和沉淀。

Colonization and bioweathering of monazite by Aspergillus niger: solubilization and precipitation of rare earth elements.

机构信息

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

Concrete Technology Group, Department of Civil Engineering, University of Dundee, Dundee, Scotland, DD1 4HN, UK.

出版信息

Environ Microbiol. 2021 Jul;23(7):3970-3986. doi: 10.1111/1462-2920.15402. Epub 2021 Feb 1.

DOI:10.1111/1462-2920.15402
PMID:33459476
Abstract

Geoactive fungi play a significant role in bioweathering of rock and mineral substrates. Monazite is a phosphate mineral containing the rare earth elements (REE) cerium, lanthanum and neodymium. Little is known about geomicrobial transformations of REE-bearing minerals which are also relevant to REE biorecovery from terrestrial and extra-terrestrial reserves. The geoactive soil fungus Aspergillus niger colonized monazite in solid and liquid growth media without any apparent growth inhibition. In a glucose-minerals salts medium, monazite enhanced growth and mycelium extensively covered rock particle surfaces, probably due to the provision of phosphate and essential trace metals. Teeth-like and pagoda-like etching patterns indicated monazite dissolution, with extensive precipitation of secondary oxalate minerals. Biomechanical forces ensued causing aggressive bioweathering effects by tunnelling, penetration and splitting of the ore particles. High amounts of oxalic acid (46 mM) and moderate amounts of citric acid (5 mM) were produced in liquid media containing 2% (wt./vol.) monazite, and REE and phosphate were released. Correlation analysis suggested that citric acid was more effective than oxalic acid in REE mobilization, although the higher concentration of oxalic acid also implied complexant activity, as well as the prime role in REE-oxalate precipitation.

摘要

地活性真菌在岩石和矿物基质的生物风化中起着重要作用。独居石是一种含有稀土元素(REE)铈、镧和钕的磷酸盐矿物。对于与从陆地和地球外储存中回收 REE 相关的含 REE 矿物的地球微生物转化,人们知之甚少。地活性土壤真菌黑曲霉在固体和液体生长培养基中殖民独居石,没有明显的生长抑制。在葡萄糖-矿物质盐培养基中,独居石促进了生长,菌丝体广泛覆盖了岩石颗粒表面,这可能是由于提供了磷酸盐和必需痕量金属。齿状和宝塔状的蚀刻图案表明独居石溶解,大量的草酸盐矿物沉淀。生物力学力随后导致矿石颗粒的侵蚀、穿透和分裂等剧烈的生物风化作用。在含有 2%(重量/体积)独居石的液体培养基中,产生了大量的草酸(46 mM)和中等浓度的柠檬酸(5 mM),并且释放了 REE 和磷酸盐。相关分析表明,柠檬酸在 REE 迁移方面比草酸更有效,尽管草酸的浓度较高也暗示了络合剂的活性,以及在 REE-草酸盐沉淀中的主要作用。

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