Nabgan Walid, Saeed M, Jalil A A, Nabgan B, Gambo Y, Ali M W, Ikram M, Fauzi A A, Owgi A H K, Hussain I, Thahe Asad A, Hu Xun, Hassan N S, Sherryna A, Kadier Abudukeremu, Mohamud M Y
School of Chemical and Energy Engineering, Faculty of Engineering, Universiti Teknologi Malaysia, 81310, Skudai, Johor, Malaysia; Centre of Hydrogen Energy, Institute of Future Energy, Universiti Teknologi Malaysia, 81310, Skudai, Johor, Malaysia.
Department of Chemistry, Government College University Faisalabad, Faisalabad, 38000, Pakistan.
Environ Res. 2022 Jul;210:112975. doi: 10.1016/j.envres.2022.112975. Epub 2022 Feb 20.
Pharmaceutical wastewater is a frequent kind of wastewater with high quantities of organic pollutants, although little research has been done in the area. Pharmaceutical wastewaters containing antibiotics and high salinity may impair traditional biological treatment, resulting in the propagation of antibiotic resistance genes. The potential for advanced oxidation processes (AOPs) to break down hazardous substances instead of present techniques that essentially transfer contaminants from wastewater to sludge, a membrane filter, or an adsorbent has attracted interest. Among a variety of AOPs, electrochemical systems are a feasible choice for treating pharmaceutical wastewater. Many electrochemical approaches exist now to remediate rivers polluted by refractory organic contaminants, like pharmaceutical micro-pollutants, which have become a severe environmental problem. The first part of this investigation provides the bibliometric analysis of the title search from 1970 to 2021 for keywords such as wastewater and electrochemical. We have provided information on relations between keywords, countries, and journals based on three fields plot, inter-country co-authorship network analysis, and co-occurrence network visualization. The second part introduces electrochemical water treatment approaches customized to these very distinct discarded flows, containing how processes, electrode materials, and operating conditions influence the results (with selective highlighting cathode reduction and anodic oxidation). This section looks at how electrochemistry may be utilized with typical treatment approaches to improve the integrated system's overall efficiency. We discuss how electrochemical cells might be beneficial and what compromises to consider when putting them into practice. We wrap up our analysis with a discussion of known technical obstacles and suggestions for further research.
制药废水是一种常见的含有大量有机污染物的废水,尽管该领域的研究较少。含有抗生素和高盐度的制药废水可能会损害传统生物处理,导致抗生素抗性基因的传播。高级氧化工艺(AOPs)分解有害物质的潜力,而非目前那些基本上将污染物从废水转移到污泥、膜过滤器或吸附剂的技术,已引起人们的关注。在各种AOPs中,电化学系统是处理制药废水的可行选择。目前有许多电化学方法可用于修复受难降解有机污染物(如制药微污染物)污染的河流,这已成为一个严重的环境问题。本研究的第一部分提供了对1970年至2021年标题搜索中废水和电化学等关键词的文献计量分析。我们基于三维图、国家间共同作者网络分析和共现网络可视化,提供了关键词、国家和期刊之间关系的信息。第二部分介绍了针对这些截然不同的废弃物流定制的电化学水处理方法,包括工艺、电极材料和操作条件如何影响结果(重点介绍阴极还原和阳极氧化)。本节探讨了电化学如何与典型处理方法结合使用,以提高集成系统的整体效率。我们讨论了电化学电池的益处以及在实际应用中需要考虑的权衡。我们以对已知技术障碍的讨论和进一步研究的建议结束我们的分析。