Sustainable removal of aqueous naproxen using a ternary magneto-biochar-clay composite: Competition with carbamazepine and influence of dissolved organic matter

IF 5.5 Q1 ENGINEERING, CHEMICAL
Aleksandër Peqini , Paul N. Diagboya , Ferdi Brahushi , Rolf-Alexander Düring
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引用次数: 0

Abstract

Low-cost magneto-biochar-clay (MBC) composite adsorbent prepared by a combination of synthesized Fe3O4, biochar (from grape cluster stalk), and feldspar clay was tested for naproxen removal from simulated and real contaminated aqueous solutions. Preliminary sorption results for naproxen and other contaminants showed higher removal efficiency of the MBC than the pristine materials. Naproxen adsorption optimum solid-liquid ratio was at 0.5 g/L and the adsorption equilibrium was attained in 720 min on this composite, while the optimum adsorption was achieved at solution pH of 2.5. The process was endothermic and better described by the Sips adsorption isotherm model. Adsorptive pore filling, electrostatic and hydrophobic interactions between the composite surfaces and the naproxen species were the main mechanisms of naproxen uptake. In a competitive adsorption study with carbamazepine, the two compounds showed higher competition at lower solution pH values. With increase in dissolved organic matter concentration in water, naproxen and carbamazepine sorption reduced significantly. The composite retained high removal efficiency (≥99 %) after five consecutive adsorption cycles. Naproxen removal efficiency in real environmental water (river water) containing low naproxen concentration (50 µg/L) was quite high (≈ 93 %). Based on this study, the composite is sustainable, cost-efficient, and potentially applicable for naproxen and carbamazepine removal from surface waters.
磁性-生物炭-粘土三元复合材料持续去除萘普生:与卡马西平的竞争及溶解有机物的影响
以合成的Fe3O4、生物炭(来自葡萄簇茎)和长石粘土为原料制备了低成本的磁性-生物炭-粘土(MBC)复合吸附剂,对模拟和真实污染水溶液中的萘普生进行了去除试验。初步吸附结果表明,MBC对萘普生等污染物的去除率高于原始材料。该复合材料对萘普生的最佳吸附料液比为0.5 g/L,在720 min内达到吸附平衡,溶液pH为2.5时吸附效果最佳。该过程为吸热过程,用Sips吸附等温线模型可以更好地描述该过程。吸附孔填充、静电和疏水相互作用是复合表面与萘普生吸附的主要机制。在卡马西平的竞争吸附研究中,两种化合物在较低的溶液pH值下表现出较高的竞争。随着水中溶解有机物浓度的增加,萘普生和卡马西平的吸附性显著降低。连续5次吸附后,复合材料仍保持较高的去除率(≥99%)。在低萘普生浓度(50µg/L)的真实环境水(河水)中,萘普生的去除率相当高(≈93%)。基于本研究,该复合材料具有可持续性和成本效益,可用于地表水中萘普生和卡马西平的去除。
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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来源期刊
Chemical Engineering Journal Advances
Chemical Engineering Journal Advances Engineering-Industrial and Manufacturing Engineering
CiteScore
8.30
自引率
0.00%
发文量
213
审稿时长
26 days
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