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Approaches for Studying Autophagy in Caenorhabditis elegans

机译:秀丽隐杆线虫自噬的研究方法

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摘要

Macroautophagy (hereafter referred to as autophagy) is an intracellular degradative process, well conserved among eukaryotes. By engulfing cytoplasmic constituents into the autophagosome for degradation, this process is involved in the maintenance of cellular homeostasis. Autophagy induction triggers the formation of a cup-shaped double membrane structure, the phagophore, which progressively elongates and encloses materials to be removed. This double membrane vesicle, which is called an autophagosome, fuses with lysosome and forms the autolysosome. The inner membrane of the autophagosome, along with engulfed compounds, are degraded by lysosomal enzymes, which enables the recycling of carbohydrates, amino acids, nucleotides, and lipids. In response to various factors, autophagy can be induced for non-selective degradation of bulk cytoplasm. Autophagy is also able to selectively target cargoes and organelles such as mitochondria or peroxisome, functioning as a quality control system. The modification of autophagy flux is involved in developmental processes such as resistance to stress conditions, aging, cell death, and multiple pathologies. So, the use of animal models is essential for understanding these processes in the context of different cell types throughout the entire lifespan. For almost 15 years, the nematode Caenorhabditis elegans has emerged as a powerful model to analyze autophagy in physiological or pathological contexts. This review presents a rapid overview of physiological processes involving autophagy in Caenorhabditis elegans, the different assays used to monitor autophagy, their drawbacks, and specific tools for the analyses of selective autophagy.
机译:巨自噬(以下称为自噬)是一种细胞内降解过程,在真核生物中非常保守。通过将细胞质成分吞入自噬体中进行降解,该过程参与了细胞稳态的维持。自噬诱导触发了杯状双层膜结构的形成,即荧光体,它逐渐拉长并封闭了要去除的物质。这种被称为自噬体的双层膜囊泡与溶酶体融合并形成自溶酶体。自噬体的内膜与被吞噬的化合物一起被溶酶体酶降解,从而使碳水化合物,氨基酸,核苷酸和脂质得以循环利用。响应各种因素,可以诱导自噬对大细胞质的非选择性降解。自噬还能够选择性地靶向货物和细胞器,例如线粒体或过氧化物酶体,作为质量控制系统。自噬通量的修饰参与了发育过程,例如对压力条件,衰老,细胞死亡和多种病理的抵抗力。因此,在整个生命周期中,使用动物模型对于了解不同细胞类型的环境下的这些过程至关重要。在将近15年的时间里,线虫秀丽隐杆线虫已经成为在生理或病理情况下分析自噬的强大模型。这篇综述提供了关于秀丽隐杆线虫自噬的生理过程的快速概述,用于监测自噬的不同分析方法,它们的缺点以及用于选择性自噬分析的特定工具。

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