Separation of Rare-Earth Ions from Mine Wastewater Using B12S Nanoflakes as a Capacitive Deionization Electrode Material.

Huan Dong Xiang, Peng Liu, Miao Deng, Dong Ge Tong
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引用次数: 1

Abstract

In this study, nanoflakes of B12S were fabricated by plasma-assisted reaction of sulfur dichloride in an ionic liquid at room temperature using europium boride as a hard template. The nanoflakes had an average width and thickness of about 3 1urn and 9.6 nm, respectively, and a large specific surface area of 1197.2 m² g 1. They behaved like typical electric double-layer capacitors with a capacitance of 201.2 F g 1 at 0.2 mA cm ² During capacitive deionization to recover rare-earth ions, the nanoflakes had higher adsorption selectivity for Sm3+ than for other competing ions present in real mine waste water. This is due to the strong interaction of the electron-concentered S-groups (S''') of the nanoflakes with S m3+. This provides an alternative to construct efficient systems to specifically remove Sm3+ from aqueous solution using B12S nanoflakes. This process demonstrates that other boron sulfide compounds can be used to recover valuable ions by capacitive deionization.

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B12S纳米片作为电容去离子电极材料分离矿山废水中的稀土离子。
本研究以硼化铕为硬模板,在离子液体中,利用等离子体辅助二氯化硫在室温下反应制备了B12S纳米片。纳米片的平均宽度和厚度分别约为31urn和9.6 nm,比表面积为1197.2 m²g 1。在对稀土离子进行电容去离子回收的过程中,纳米薄片对Sm3+的吸附选择性高于实际矿山废水中存在的其他竞争离子。这是由于纳米薄片的电子中心S基团(S'')与S m3+的强相互作用。这为构建高效系统提供了另一种选择,可以使用B12S纳米片专门从水溶液中去除Sm3+。这一过程表明,其他硫化硼化合物可以通过电容去离子的方法回收有价离子。
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来源期刊
Journal of nanoscience and nanotechnology
Journal of nanoscience and nanotechnology 工程技术-材料科学:综合
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审稿时长
3.6 months
期刊介绍: JNN is a multidisciplinary peer-reviewed journal covering fundamental and applied research in all disciplines of science, engineering and medicine. JNN publishes all aspects of nanoscale science and technology dealing with materials synthesis, processing, nanofabrication, nanoprobes, spectroscopy, properties, biological systems, nanostructures, theory and computation, nanoelectronics, nano-optics, nano-mechanics, nanodevices, nanobiotechnology, nanomedicine, nanotoxicology.
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