水-土壤环境中抗生素污染现状及吸附行为研究进展
Research Progress of Antibiotic Pollution and Adsorption Behavior in Water-Soil Environment
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摘要: 近年来，在水-土壤环境中频繁检测出的抗生素，对人类健康和生态系统已产生不容忽视的风险。其中，在环境中常被检测到的磺胺类（sulfonamides，SAs）、四环素类（tetracyclines，TCs）、大环内酯类（macrolides，MLs）和氟喹诺酮类（fluoroquinolones，FQs）抗生素在畜牧养殖以及临床医疗广泛应用。本文从3个方向进行了综述：（1）抗生素在水-土壤环境中的分布现状，包括抗生素的来源、使用现状及在水环境、土壤环境中的污染现状，并对比四大类典型抗生素在不同地区环境介质中的污染情况；（2）分析抗生素在水-土壤环境中的吸附行为，探究金属离子、pH、有机质及分子结构对抗生素吸附行为的影响；（3）对水-土壤环境中抗生素研究的重点方向进行展望。磺胺类具有良好的化学稳定性和环境迁移能力，在水环境和土壤环境中的残留水平都较高且在水环境中更容易残留。四环素类具有良好的水溶性、光解特性以及较高的辛醇-水分配系数（Kow），容易被沉积物或土壤吸附。氟喹诺酮类自身性质稳定，半衰期长，比其他类抗生素具有更强的土壤蓄积能力和持久性，在水环境中频繁被检出。大环内酯类在水环境中不仅具有较高的生物可降解性，并且由于其衰减速率较高，使得此类物质在被吸附到沉积物中之后很难迁移到深层沉积物中。Abstract: In recent years, the frequent detection of antibiotics in water-soil environments suggests that the antibiotics are non-negligible risks to human health and ecosystems. Sulfonamides (SAs), tetracyclines (TCs), macrolides (MLs) and fluoroquinolones (FQs), the most commonly detected antibiotics, were widely used in animal husbandry and clinical medicine. The objective of this research were to:(1) analyze the distribution status of antibiotics in water-soil environment, including the source, the applications and the pollution status, and compare the pollution states of four categories of typical antibiotics in different regional environmental media; (2) investigate the adsorption behavior of antibiotics in water-soil environment and its influence factors, including metal ions, pH value, organic matter and molecular structure; (3) prospect the key directions of antibiotic research in water-soil environment. Sulfonamides has good chemical stability and environmental migration ability, resulting in the higher residue level in water and soil environment, and are more likely to be retained in water environment. Tetracyclines has good water solubility, photolysis ability and high octanol-water partition coefficient (Kow), which make tetracyclines be more easily adsorbed by sediments or soils. The higher environmental stability and longer half-life time give fluoroquinolones a greater soil storage capacity and persistency compared to other antibiotics, thus the fluoroquinolones are frequently detected in water environment. Macrolides exhibits greater biodegradability and decay rates in aquatic media, which makes it difficult for such substances to migrate to deep environment after being adsorbed into sediments.
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Key words:
- antibiotics /
- pollution /
- adsorption /
- migration /
- water /
- soil
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