Graphene Oxide-based Nanomaterials for Uranium Adsorptive Uptake

纳米材料 石墨烯 氧化物 氧化铀 吸附 材料科学 贫化铀 化学工程 纳米技术 化学 冶金 工程类 有机化学
作者
Hongjuan Liu,Yuanbing Mao,School of Nuclear Science and Technology, University of South China, Hengyang, 421001, China,Yuanbing Mao,Department of Chemistry, Illinois Institute of Technology, 3101 South Dearborn Street, Chicago, IL 60616, USA
出处
期刊:ES materials & manufacturing [Engineered Science Publisher]
被引量:75
标识
DOI:10.30919/esmm5f453
摘要

The growth of nuclear power generation and the necessity to acquire uranium reserves for energy security and pollution regulation for environmental protection put much emphasis on the removal and recovery of uranium from aqueous solutions.Adsorption has been proved to be a promising method for this purpose method because of its high adsorption efficiency, easy operation, low cost, reusability and availability of massive adsorbents.Among a wide variety of adsorbents, graphene oxide (GO) has demonstrated excellent adsorption potential for uranium uptake and recovery due to its unique 2D structure, high specific surface area and abundant oxygen-containing functional groups.Regarding the functional groups, it can make GO with high dispersion and hydrophilicity and participate in the complexation of uranium, leading to high adsorption efficiency for uranium.In this review, the research status and progress of GO-based nanomaterials for uranium adsorption are summarized.Their adsorption capacities, influencing factors, kinetics, isotherms and thermodynamics are compared and discussed.The microscopic mechanisms of uranium adsorption onto these GO-based nanomaterials are elaborated at molecular level by spectral analysis, surface complexation models, and theoretical calculations.Meanwhile, the challenges and research trends in the study of uranium adsorption by GO-based nanomaterials are pointed out.We believe that our focused review provides not only a summarizing reference on the current status of uranium removal and recovery by GObased nanomaterials, but also future directions for related follow-up research and practical applications.
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