Carbendazim led to neurological abnormalities by interfering metabolic profiles in zebrafish brain after short-term exposure

IF 9 Q1 ENVIRONMENTAL SCIENCES
Tiancai Wang , Zishuang Wang , Guangqin Liao , Xiabing Li , Jingyi Gu , Jing Qiu , Yongzhong Qian
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Abstract

Carbendazim is an agricultural fungicide and a widely present ecotoxic pollutant, but its damaging effects on the nervous system are not fully understood. Here, we assessed effects of short-term exposure to carbendazim on zebrafish brains. It has been revealed firstly that carbendazim can accumulate in the brain after a 7-day exposure, with the maximum concentration of 68.22 ± 9.84 μg/kg, which caused tissue vacuolization and neuronal damage, then led to a decline in motor behavioral abilities, especially a significant reduction in the distance moved. These changes may be attributed to metabolism abnormalities. Based on metabolomics and lipidomics, substantial alterations were observed in 264 lipids and 135 metabolites, with notable enrichment in 5 metabolic pathways, including glycerophospholipid metabolism, glycerolipid metabolism, and sphingolipid metabolism. To investigate system-level variations, weighted correlation network analysis was utilized to screen for 4 biomarkers strongly associated with carbendazim exposure: citric acid, guanosine-5′-monophosphate, sphingosine, and monoacylglycerol. The alterations of these markers confirmed damages of carbendazim to zebrafish nervous system, further elucidating that metabolic disorders caused by carbendazim in brains led to tissue damage and subsequent changes in motor behavior. This study provides scientific evidence for neurotoxicities of carbendazim and offers new insights into ecological risks.

Abstract Image

多菌灵短期暴露后通过干扰斑马鱼大脑代谢谱导致神经系统异常
多菌灵是一种农业杀菌剂和广泛存在的生态毒性污染物,但其对神经系统的破坏作用尚未完全了解。在这里,我们评估了短期暴露于多菌灵对斑马鱼大脑的影响。结果表明,多菌灵暴露于大鼠脑内7 d后可在脑内积累,最大浓度为68.22±9.84 μg/kg,引起组织空泡化和神经元损伤,导致运动行为能力下降,尤其是移动距离明显减少。这些变化可归因于代谢异常。基于代谢组学和脂质组学,264种脂质和135种代谢物发生了实质性变化,其中甘油磷脂代谢、甘油脂代谢和鞘脂代谢5种代谢途径显著富集。为了研究系统水平的变化,采用加权相关网络分析筛选与多菌灵暴露密切相关的4种生物标志物:柠檬酸、鸟苷-5′-单磷酸鸟苷、鞘氨醇和单酰基甘油。这些标记物的改变证实了多菌灵对斑马鱼神经系统的损害,进一步阐明了多菌灵在大脑中引起的代谢紊乱导致组织损伤和随后的运动行为改变。该研究为多菌灵的神经毒性提供了科学依据,并为生态风险提供了新的见解。
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CiteScore
15.40
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