Miglione Antonella, Capocotta Dalila, Kalligosfyri Panagiota M, Iula Gabriella, Mancini Marco, Gioia Valentina, Frugis Alessandro, Graziano Sossio F, Cinti Stefano
Department of Pharmacy, University of Naples Federico II, 80131 Naples, Italy.
Department of Organic Micropollutants, Acea Infrastructure, 00191 Rome, Italy.
ACS ES T Water. 2025 May 14;5(6):3508-3517. doi: 10.1021/acsestwater.5c00333. eCollection 2025 Jun 13.
The increasing prevalence of emerging contaminants, such as pharmaceuticals, pesticides, and industrial chemicals, in wastewater presents significant risks to water quality, ecosystems, and public health. Nonsteroidal anti-inflammatory drugs (NSAIDs), such as ibuprofen, are particularly concerning due to their persistence in wastewater and adverse effects on aquatic environments and biodiversity. Electrochemical sensors have emerged as innovative tools for real-time monitoring of such contaminants, enabling the detection and quantification of trace levels and supporting more effective wastewater management strategies. Among these, zeolitesmicroporous minerals with high adsorption capacity and ion exchange propertieshave demonstrated strong potential for economical, sustainable, and environmentally friendly wastewater remediation, particularly given their ability to be regenerated. In this study, a polyester-based electrochemical sensor for ibuprofen detection was developed, analytically characterized, and validated in wastewater. The sensor achieved a detection limit of 1.6 μg/mL and a repeatability of 8% in wastewater. The remediation system was optimized by evaluating different quantities and exposure times of surfactant-modified and unmodified zeolite-rich tuff powder. Then, the complete setup was successfully tested in the presence of ibuprofen-contaminated wastewater demonstrating a remediation efficiency of 73% using the modified zeolite. The sensor, connected to a portable potentiostat, successfully provided on-site measurements to evaluate the effectiveness of zeolites in wastewater remediation from ibuprofen.
废水中新兴污染物(如药物、农药和工业化学品)的日益普遍对水质、生态系统和公众健康构成了重大风险。非甾体抗炎药(NSAIDs),如布洛芬,因其在废水中的持久性以及对水生环境和生物多样性的不利影响而尤为令人担忧。电化学传感器已成为实时监测此类污染物的创新工具,能够检测和定量痕量水平,并支持更有效的废水管理策略。其中,沸石——具有高吸附能力和离子交换特性的微孔矿物——已显示出在经济、可持续和环境友好型废水修复方面的强大潜力,特别是考虑到它们能够再生。在本研究中,开发了一种用于检测布洛芬的聚酯基电化学传感器,并在废水中进行了分析表征和验证。该传感器在废水中的检测限为1.6μg/mL,重复性为8%。通过评估表面活性剂改性和未改性的富含沸石的凝灰岩粉末的不同用量和暴露时间,对修复系统进行了优化。然后,在含有布洛芬污染的废水存在的情况下,成功测试了完整的装置,结果表明使用改性沸石的修复效率为73%。该传感器连接到便携式恒电位仪上,成功地进行了现场测量,以评估沸石对废水中布洛芬的修复效果。