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关于微纳米塑料对人类健康影响的系统评价:表观遗传机制的潜在调节及生物标志物的鉴定。

A systematic review on the impact of micro-nanoplastics on human health: Potential modulation of epigenetic mechanisms and identification of biomarkers.

机构信息

Department of Biotechnology, School of Applied Sciences, REVA University, Bengaluru, 560064, Karnataka, India.

Department of Microbiology, Bharathidasan University, Tiruchirappalli, 620024, Tamil Nadu, India.

出版信息

Chemosphere. 2024 Sep;363:142986. doi: 10.1016/j.chemosphere.2024.142986. Epub 2024 Jul 31.

Abstract

Epigenetic-mediated modifications, induced by adverse environmental conditions, significantly alter an organism's physiological mechanisms. Even after elimination of the stimulus, these epigenetic modifications can be inherited through mitosis, thereby triggering transgenerational epigenetics. Plastics, with their versatile properties, are indispensable in various aspects of daily life. However, due to mismanagement, plastics have become so ubiquitous in the environment that no ecosystem on Earth is free from micro-nanoplastics (MNPs). This situation has raised profound concerns regarding their potential impact on human health. Recently, both in vivo animal and in vitro human cellular models have shown the potential to identify the harmful effects of MNPs at the genome level. The emerging epigenetic impact of MNP exposure is characterized by short-term alterations in chromatin remodelling and miRNA modulation. However, to understand long-term epigenetic changes and potential transgenerational effects, substantial and more environmentally realistic exposure studies are needed. In the current review, the intricate epigenetic responses, including the NHL-2-EKL-1, NDK-1-KSR1/2, and WRT-3-ASP-2 cascades, wnt-signalling, and TGF- β signalling, established in model organisms such as C. elegans, mice, and human cell lines upon exposure to MNPs, were systematically examined. This comprehensive analysis aimed to predict human pathways by identifying human homologs using databases and algorithms. We are confident that various parallel miRNA pathways, specifically the KSR-ERK-MAPK pathway, FOXO-Insulin cascade, and GPX3-HIF-α in humans, may be influenced by MNP exposure. This influence may lead to disruptions in key metabolic and immune pathways, including glucose balance, apoptosis, cell proliferation, and angiogenesis. Therefore, we believe that these genes and pathways could serve as potential biomarkers for future studies. Additionally, this review emphasizes the origin, dispersion, and distribution of plastics, providing valuable insights into the complex relationship between plastics and human health while elaborating on the epigenetic impacts.

摘要

环境条件引起的表观遗传修饰会显著改变生物体的生理机制。即使刺激消除后,这些表观遗传修饰也可以通过有丝分裂遗传,从而引发跨代表观遗传学。塑料具有多种特性,在日常生活的各个方面都不可或缺。然而,由于管理不善,塑料在环境中无处不在,地球上没有任何生态系统免受微纳米塑料(MNPs)的影响。这种情况引发了人们对其对人类健康潜在影响的深刻关注。最近,体内动物和体外人类细胞模型都显示出在基因组水平上识别 MNPs 有害影响的潜力。MNP 暴露引起的新兴表观遗传影响表现为染色质重塑和 miRNA 调节的短期改变。然而,要了解长期的表观遗传变化和潜在的跨代效应,需要进行大量更具环境现实性的暴露研究。在当前的综述中,系统地研究了秀丽隐杆线虫、小鼠和人类细胞系等模式生物在暴露于 MNPs 后所建立的复杂表观遗传反应,包括 NHL-2-EKL-1、NDK-1-KSR1/2 和 WRT-3-ASP-2 级联、wnt 信号和 TGF-β信号。通过使用数据库和算法识别人类同源物,对这些分析进行了预测人类途径的综合分析。我们相信,各种平行的 miRNA 途径,特别是人类中的 KSR-ERK-MAPK 途径、FOXO-胰岛素级联和 GPX3-HIF-α 途径,可能会受到 MNP 暴露的影响。这种影响可能会导致关键代谢和免疫途径的中断,包括葡萄糖平衡、细胞凋亡、细胞增殖和血管生成。因此,我们认为这些基因和途径可以作为未来研究的潜在生物标志物。此外,本综述强调了塑料的来源、分散和分布,深入探讨了塑料与人类健康之间的复杂关系,并详细阐述了表观遗传影响。

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