Aging increases the particulate- and leachate-induced toxicity of tire wear particles to microalgae

毒性 三角褐指藻 渗滤液 环境化学 光合作用 微粒 光合效率 生物 化学 植物 藻类 生态学 有机化学
作者
Min Lv,Meng Fanyu,Mingsan Man,Shuang Lü,Suyu Ren,Xiaoyong Yang,Qiaoning Wang,Lingxin Chen,Jing Ding
出处
期刊:Water Research [Elsevier]
卷期号:256: 121653-121653 被引量:5
标识
DOI:10.1016/j.watres.2024.121653
摘要

The toxic effects of tire wear particles (TWPs) on organisms have attracted widespread concerns over the past decade. However, the underlying toxicity mechanism of TWPs, especially aged TWPs to marine microalgae remains poorly understood. This study investigated the physiological and metabolic responses of Phaeodactylum tricornutum to different concentrations of TWPs (Experiment 1), virgin and differently aged TWPs (Experiment 2) as well as their leachates and leached particles (Experiment 3). Results demonstrated that TWPs promoted the growth of microalgae at low concentrations (0.6 and 3 mg L−1) and inhibited their growth at high concentrations (15 and 75 mg L−1). Moreover, aged TWPs induced more profound physiological effects on microalgae than virgin TWPs, including inhibiting microalgae growth, decreasing the content of Chla, promoting photosynthetic efficiency, and causing oxidative damage to algal cells. Untargeted metabolomics analysis confirmed that aged TWPs induced more pronounced metabolic changes than virgin TWPs. This study represented the first to demonstrate that both particulate- and leachate-induced toxicity of TWPs was increased after aging processes, which was confirmed by the changes in the surface morphology of TWPs and enhanced release of additives. Through the significant correlations between the additives and the microalgal metabolites, key additives responsible for the shift of microalgal metabolites were identified. These results broaden the understanding of the toxicity mechanism of aged TWPs to microalgae at the physiological and metabolic levels and appeal for considering the effects of long-term aging on TWP toxicity in risk assessment of TWPs.
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