Lorenzo Hernandez-Tabares, Frank J. Chao-Mujica, Juan G. Darias-Gonzalez, Luis M. Ledo Pereda, Manuel Antuch, Ernesto Carrillo-Barroso, J. Enrique Chong-Quero, Luis F. Desdin-Garcia
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引用次数: 0
Abstract
The submerged arc discharge (SAD) allows the production of high-quality carbon nanostructures. The SAD method uses simple and inexpensive equipment. However, the carbon nanostructures obtained contain contaminants that are difficult to remove. The study of the published articles shows that reporting similar operating parameters informs quite different results. Reducing the generation of pollutants requires optimization of the design and the operation of installations. Nevertheless, the study of the state-of-the-art indicates that this aspect has been underestimated, which is manifested in the absence of publications on this subject. On the other hand, the increase in the production scale causes new problems that are not manifested in small-volume productions that are carried out in a research laboratory. The present work aims to analyze the SAD installation design and operation criteria to reduce the presence of contaminants. This study indicated that the key elements of the design and the operation are the electrodes alignment, feeding and attachment mechanisms, the electrode micropositioning system, the synthesis reactor design, the sensitive parameters control, the data acquisition system, and the selection of the liquid medium. Herein, these elements are analyzed and the best strategies for their design and operation are exposed. Those aspects relevant to scaling up of production are emphasized.
采用浸没电弧放电法(SAD)可以生产出高质量的碳纳米结构。SAD 方法使用的设备简单、成本低廉。然而,获得的纳米碳结构含有难以去除的污染物。对已发表文章的研究表明,报告类似的操作参数会得到截然不同的结果。减少污染物的产生需要对设备的设计和运行进行优化。然而,对最新技术的研究表明,这方面的工作被低估了,这表现在缺乏这方面的出版物。另一方面,生产规模的扩大也带来了新的问题,而这些问题在研究实验室进行的小批量生产中并不存在。本研究旨在分析 SAD 设备的设计和运行标准,以减少污染物的存在。研究表明,设计和运行的关键因素包括电极排列、进料和附着机制、电极微定位系统、合成反应器设计、敏感参数控制、数据采集系统和液体介质的选择。本文将对这些要素进行分析,并揭示其设计和运行的最佳策略。其中强调了与扩大生产规模相关的方面。
期刊介绍:
The overall aim of the Journal of Nanomaterials is to bring science and applications together on nanoscale and nanostructured materials with emphasis on synthesis, processing, characterization, and applications of materials containing true nanosize dimensions or nanostructures that enable novel/enhanced properties or functions. It is directed at both academic researchers and practicing engineers. Journal of Nanomaterials will highlight the continued growth and new challenges in nanomaterials science, engineering, and nanotechnology, both for application development and for basic research.