Marin Nicoleta Mirela, Nita Lazar Mihai, Popa Marcela, Galaon Toma, Pascu Luoana Florentina
National Research and Development Institute for Industrial Ecology-ECOIND, 57-73 Drumul Podu Dambovitei, 060652 Bucharest, Romania.
Department of Oxide Materials Science and Engineering, National University of Science and Technology Politehnica Bucharest, 1-7 Gh. Polizu, 060042 Bucharest, Romania.
Materials (Basel). 2024 Dec 6;17(23):5994. doi: 10.3390/ma17235994.
Drinking and wastewater are to be treated for safe human consumption and for keeping surface waters clean. There are multiple water purification procedures, but the use of ion-exchange resins significantly enhances water purification efficiency. This review was targeted on highlighting the concept and classification of polymeric ion-exchange resins as well as pointing out their real-world applications. Their successful use for purification purposes has been linked to their chemical structure, simplicity of operation, accessibility, and reusability. Therefore, polymeric ion-exchange resins have been used for the removal of a wide range of organic and inorganic pollutants such as pharmaceutical compounds, dyes, organic matter, metals, and many others. Ion-exchange resins are obtained directly by synthesis methods or grafting ionizable groups on polymer matrix in order to ensure continuous improvement. Furthermore, the newly designed ion-exchange resins take into consideration biodegradability potential towards obtaining ecofriendly compounds.
饮用水和废水需要经过处理,以确保人类安全饮用并保持地表水清洁。有多种水净化程序,但离子交换树脂的使用显著提高了水净化效率。本综述旨在突出聚合物离子交换树脂的概念和分类,并指出其实际应用。它们成功用于净化目的与其化学结构、操作简便性、可及性和可重复使用性有关。因此,聚合物离子交换树脂已被用于去除多种有机和无机污染物,如药物化合物、染料、有机物、金属等。离子交换树脂可通过合成方法直接获得,或通过在聚合物基体上接枝可电离基团来确保持续改进。此外,新设计的离子交换树脂考虑了生物降解潜力,以获得环保型化合物。