Adsorption of Copper Ions on the Surface of Multilayer Ti3C2Tx MXenes with Mixed Functionalization

IF 0.8 Q3 Engineering Nanotechnologies in Russia Pub Date : 2024-03-21 DOI:10.1134/S2635167623600955
K. V. Sobolev, K. E. Magomedov, N. R. Shilov, V. V. Rodionova, A. S. Omelyanchik
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Abstract

Nowadays a new class of two-dimensional materials, MXenes, is attracting considerable attention as nanoadsorbents for the removal of heavy-metal ions from water. Pollutants such as copper and other heavy metals possess a negative impact on human health and the quality of natural ecosystems when their concentration exceeds an acceptable limit, which makes it urgent to develop cheap and effective methods to reduce the concentration of such pollutants. In this work we study the adsorptive properties of Ti3C2Tx MXenes with mixed functionalization by –O, –F, and –OH surface groups in relation to copper Cu(II) ions. Herein, multilayer MXene particles are investigated, since their yield is much greater than that of single-layer particles when using standard synthesis methods, and the experimental results are compared with previously published data for single-layer MXenes. It is established that, at low concentrations (below 50 mg/L), multilayer Ti3C2Tx MXenes demonstrate a comparable adsorption capacity of ~102 mg/g which makes it possible to use them for practical applications.

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混合官能化多层 Ti3C2Tx MXenes 表面对铜离子的吸附
如今,一类新型的二维材料--MXenes--作为去除水中重金属离子的纳米吸附剂,正引起人们的广泛关注。当铜和其他重金属等污染物的浓度超过可接受的限度时,就会对人类健康和自然生态系统的质量产生负面影响,因此迫切需要开发廉价而有效的方法来降低此类污染物的浓度。在这项工作中,我们研究了由 -O、-F 和 -OH 表面基团混合官能化的 Ti3C2Tx MXenes 对铜 Cu(II)离子的吸附特性。由于使用标准合成方法时,多层 MXene 粒子的产量远高于单层粒子,因此本文对多层 MXene 粒子进行了研究,并将实验结果与之前公布的单层 MXenes 数据进行了比较。实验结果表明,在低浓度(低于 50 毫克/升)条件下,多层 Ti3C2Tx MXenes 的吸附容量约为 102 毫克/克,具有可比性,因此可用于实际应用。
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来源期刊
Nanotechnologies in Russia
Nanotechnologies in Russia NANOSCIENCE & NANOTECHNOLOGY-
CiteScore
1.20
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0.00%
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0
期刊介绍: Nanobiotechnology Reports publishes interdisciplinary research articles on fundamental aspects of the structure and properties of nanoscale objects and nanomaterials, polymeric and bioorganic molecules, and supramolecular and biohybrid complexes, as well as articles that discuss technologies for their preparation and processing, and practical implementation of products, devices, and nature-like systems based on them. The journal publishes original articles and reviews that meet the highest scientific quality standards in the following areas of science and technology studies: self-organizing structures and nanoassemblies; nanostructures, including nanotubes; functional and structural nanomaterials; polymeric, bioorganic, and hybrid nanomaterials; devices and products based on nanomaterials and nanotechnology; nanobiology and genetics, and omics technologies; nanobiomedicine and nanopharmaceutics; nanoelectronics and neuromorphic computing systems; neurocognitive systems and technologies; nanophotonics; natural science methods in a study of cultural heritage items; metrology, standardization, and monitoring in nanotechnology.
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