Degradation of the Antibiotic Sulfamethoxazole by Ozonation: A Comprehensive Review

CleanMat Pub Date : 2024-11-26 DOI:10.1002/clem.14
Jéssica Martini, Joshua O. Ighalo, Ebuka Chizitere Emenike, Jordana Georgin, Elvis Carissimi
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Abstract

Sulfamethoxazole (SMX) is an antibiotic widely used for the treatment of several diseases, especially respiratory and urinary. Due to its widespread use, its presence in the environment has been on the rise. This study discusses the degradation of the antibiotic SMX through the ozonation process. SMX is preferentially degraded by the direct action of O3 on the molecule, starting by breaking the double bonds in the aromatic ring. Through ozonation it is possible to obtain complete SMX degradation within 10 min, but the mineralization of the solution is not achieved, reaching total organic carbon removal efficiencies of 5%–60%, depending on the reaction time. Factors such as the presence of organic matter (OM) and the pH of the solution interfere with the degradation of SMX. The OM acts as a radical scavenger, decreasing the efficiency of degradation, while the pH interferes with the decomposition of O3 into radicals and the dissolution of the oxidant in the medium, in addition to influencing the state of ionization of the SMX making it more or less prone to reactions. In general, most other remediation processes are carried out on a laboratory scale. To increase the level of these processes to a full scale, more pilot-scale studies are needed. In addition, it is necessary to focus on the practice of reusing materials, avoiding the generation of secondary pollution, and increasing the useful life of the material. The review also discusses the reaction mechanisms, intermediate compounds formed, mineralization of the solution, and factors that influence the process, which can help in making decisions for future studies to be carried out in the area. Prospects in the research area revolve around using metal–organic frameworks as molecular imprinting technology to modify heterogeneous catalysts, integration of external energy, bimetallic systems, and evaluation of deactivation mechanisms.

Abstract Image

臭氧氧化降解抗生素磺胺甲恶唑的研究进展
磺胺甲恶唑(SMX)是一种广泛用于治疗多种疾病的抗生素,特别是呼吸道和泌尿系统疾病。由于它的广泛使用,它在环境中的存在一直在上升。本研究探讨了臭氧化过程对抗生素SMX的降解。SMX被O3直接作用于分子,从破坏芳香环中的双键开始优先降解。通过臭氧氧化可以在10分钟内完全降解SMX,但不能实现溶液的矿化,根据反应时间的不同,总有机碳去除率可达5%-60%。有机物(OM)的存在和溶液的pH等因素会干扰SMX的降解。OM作为自由基清除剂,降低了降解效率,而pH干扰O3分解成自由基和氧化剂在介质中的溶解,此外还影响SMX的电离状态,使其或多或少容易发生反应。一般来说,大多数其他补救过程都是在实验室规模上进行的。为了将这些过程的水平提高到全面水平,需要进行更多的试点研究。此外,要注重材料再利用的实践,避免二次污染的产生,增加材料的使用寿命。本文还讨论了反应机理、形成的中间化合物、溶液的矿化以及影响反应过程的因素,有助于为今后在该领域开展的研究做出决策。研究领域的前景围绕着利用金属-有机框架作为分子印迹技术修饰多相催化剂、外部能量集成、双金属体系和失活机理评价等方面展开。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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