电弧放电中石墨平面界面上金属合金颗粒的合成

Q3 Materials Science
A. Breus, S. Abashin, O. Serdiuk, Iu. Sysoiev
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引用次数: 0

摘要

研究了电弧放电在合成包封(Fe-Cu-Al)@C结构中的应用。所提出的技术的成本效益可能有利于开发一种新的方法,用于大规模生产受碳壳氧化保护的金属微米和纳米颗粒。将铜样品浸入石墨、铁和铝粉的混合物中,并放入设计用于在大气条件下点燃电弧放电的负功率坩埚中。所提出的方法通过用碳薄层覆盖Fe-Cu-Al合金液滴来防止其氧化,碳薄层也用作金属颗粒的收集器。电弧放电的应用导致了金属颗粒和各种碳纳米结构的产生,SEM图像证实了这一点。纳米结构被分为更复杂的花形、球形、树状和章鱼形结构,金属合金颗粒的产量从几微米到纳米不等。这些发现表明,在生长的颗粒从碳壳中清除后,结构的催化应用将被用作活性化学剂。主要限制是来自排放体积的不受控制的热传递。因此,为了在未来的研究中改进对合成的控制,应该在体积周围安装一个额外的屏幕。这项研究证实了一种灵活简单的合成金属合金颗粒的方法,该方法可用于催化应用。合成是使用众所周知的电弧放电技术进行的,以在预期应用之前扩大化学活性金属颗粒的生产产量和多样性,该金属颗粒被外壳保护不被氧化。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Synthesis of metallic alloy particles on flat graphitic interfaces in arc discharge
The application of arc discharge to synthesising encapsulated (Fe-Cu-Al)@C structures is studied. The cost-effectiveness of the proposed technique may be beneficial for developing a new method for large-scale production of metal micro- and nanoparticles protected from oxidation by a carbon shell.A copper sample was immersed into a mixture of graphite, iron, and aluminium powder and placed into a negatively powered crucible of a setup designed to ignite arc discharge at atmospheric conditions. The proposed approach prevents the oxidation of droplets of Fe-Cu-Al alloy by covering them with a thin layer of carbon, which is also engaged as a collector of the metal particles.The application of arc discharge resulted in the generation of metal particles and various carbon nanostructures, which were confirmed by SEM images. The nanostructures were grouped into more complex flower-, ball-, tree-, and octopus-shaped structures with a large yield of metallic alloy particles ranging from a few μm (micrometers) to nanometre sizes. These findings suggest the catalytic application of the structures after the grown particles are cleared from the carbon shell to be implemented as active chemical agents.The main limitation is the uncontrolled heat transfer from the discharge volume. Therefore, an additional screen should be installed around the volume in order to improve control over synthesis in future studies.This research confirms a flexible and simple method of synthesising metallic alloy particles that may be applied for catalytic applications.The synthesis is conducted using a well-known arc discharge technique to expand the production yield and diversity of chemically-active metal particles protected from oxidation by a shell before the intended application.
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来源期刊
Archives of materials science and engineering
Archives of materials science and engineering Materials Science-Materials Science (all)
CiteScore
2.90
自引率
0.00%
发文量
15
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