材料科学
光热治疗
海水
吸附
铀
浓缩铀
化学工程
纳米技术
海洋学
冶金
有机化学
地质学
工程类
化学
作者
Tingyang Li,Xiangbin Lin,Zhehua Zhang,Linsen Yang,Yongchao Qian,Lin Fu,Shengyang Zhou,Weipeng Chen,Qingchen Wang,Xin Li,Xiang‐Yu Kong,Hongyan Xiao,Lei Jiang,Liping Wen
标识
DOI:10.1002/adfm.202212819
摘要
Abstract Access to uranium resources is critical to the sustainable development of nuclear energy. The ocean contains abundant uranium resources, but the marine biological pollution and the low concentration of uranium make it a giant challenge to extract uranium from seawater. On the foundation of selective uranium adsorption using high uranium‐affinity groups, realizing the external‐field improved uranium capture without extra energy consumption is highly attractive. A solar thermal collector with 3D ion‐transport networks based on environmentally friendly biomass adsorption material is reported, which contains antibacterial adsorption ligands and photothermal graphene oxide. The antibacterial ability through an easy one‐step reaction and the fast mass transfer caused by photothermal conversion collaboratively improve the original adsorption capacity of the hydrogel by 46.7%, reaching 9.18 mg g −1 after contact with natural seawater for 14 days. This study provides a universal strategy for the design of physical‐fields‐enhanced hydrogel adsorbents.
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