Rokesh Karuppannan, Sakar Mohan, Do Trong-On
Department of Chemical Engineering, Laval University, Quebec, QC G1V 0A8, Canada.
Centre for Nano and Material Sciences, Jain University, Bangalore 562112, Karnataka, India.
Nanomaterials (Basel). 2021 Feb 25;11(3):572. doi: 10.3390/nano11030572.
The raising occurrence of antibiotics in the global water bodies has received the emerging concern due to their potential threats of generating the antibiotic-resistive and genotoxic effects into humans and aquatic species. In this direction, the solar energy assisted photocatalytic technique offers a promising solution to address such emerging concern and paves ways for the complete degradation of antibiotics with the generation of less or non-toxic by-products. Particularly, the designing of hybrid photocatalyticcomposite materials has been found to show higher antibiotics degradation efficiencies. As the hybrid photocatalysts are found as the systems with ideal characteristic properties such as superior structural, surface and interfacial properties, they offer enhanced photoabsorbance, charge-separation, -transfer, redox properties, photostability and easy recovery. In this context, this review study presents an overview on the recent developments in the designing of various hybrid photocatalytic systems and their efficiency towards the degradation of various emerging antibiotic pharmaceutical contaminants in water environments.
全球水体中抗生素的出现频率不断上升,因其可能对人类和水生物种产生抗生素抗性和基因毒性效应,已引发越来越多的关注。在这方面,太阳能辅助光催化技术为解决此类新出现的问题提供了一个有前景的解决方案,并为抗生素的完全降解及生成较少或无毒副产物铺平了道路。特别是,已发现设计混合光催化复合材料可显示出更高的抗生素降解效率。由于混合光催化剂被视为具有理想特性的体系,如优异的结构、表面和界面特性,它们具有增强的光吸收、电荷分离、转移、氧化还原特性、光稳定性且易于回收。在此背景下,本综述研究概述了各种混合光催化体系设计方面的最新进展及其对水环境中各种新出现的抗生素药物污染物的降解效率。