超量积累植物
稀土
蕨类植物
矿化(土壤科学)
矿物
风化作用
表生(地质学)
独居石
地球化学
矿产资源分类
稀土元素
化学
地球科学
植物修复
土(古典元素)
生物矿化
环境化学
天体生物学
成矿作用
地质学
太古宙
生物无机化学
环境修复
生物群
尾矿
作者
Liuqing He,Haiyang Xian,Yiping Yang,Jielong Cao,Hongmei Yang,Jieyang Xie,Jiaxin Xi,Yixuan Yang,Shan Li,Runliang Zhu,Xiaoliang Liang,Hong‐Ping He,Michael F. Hochella,Jianxi Zhu
标识
DOI:10.1021/acs.est.5c09617
摘要
Rare earth elements (REEs) are critical metals for clean energy and high-tech applications, yet their supply faces environmental and geopolitical challenges. Phytomining, a green strategy using hyperaccumulator plants to extract metals from soil, offers potential for sustainable REE supply but remains underexplored. Here, we report the discovery of naturally formed nanoscale monazite in the fern Blechnum orientale, a REE hyperaccumulator plant. These REE minerals crystallize within extracellular tissues under ambient conditions, forming dendritic nanocrystals through biologically induced mineralization coupled with a non-equilibrium self-organization process. This represents the novel discovery of REE mineral crystals formed in living plants through a phytomineralization (i.e., plant-mediated mineralization) process. Our findings uncover a previously unrecognized, plant-mediated pathway for critical mineral formation in a supergene environment. This discovery not only sheds light on REE enrichment and sequestration during chemical and biological weathering but also opens new possibilities for the direct recovery of functional REE materials. This work substantiates the feasibility of phytomining and introduces an innovative, plant-based approach for sustainable REE resource development.
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