The Extracellular Matrix of Yeasts: A Key Player in the Microbial Biology Change of Paradigm.

Cândida Lucas, Coralie Silva
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引用次数: 1

Abstract

Microbes are traditionally regarded as planktonic organisms, individual cells that live independently from each other. Although this is true, microbes in nature mostly live within large multi-species communities forming complex ecosystems. In these communities, microbial cells are held together and organised spatially by an extracellular matrix (ECM). Unlike the ECM from the tissues of higher eukaryotes, microbial ECM, mostly that of yeasts, is still poorly studied. However, microbial biofilms are a serious cause for concern, for being responsible for the development of nosocomial infections by pharmacological drugs-resistant strains of pathogens, or for critically threatening plant health and food security under climate change. Understanding the organization and behaviour of cells in biofilms or other communities is therefore of extreme importance. Within colonies or biofilms, extremely large numbers of individual microbial cells adhere to inert surfaces or living tissues, differentiate, die or multiply and invade adjacent space, often following a 3D architectural programme genetically determined. For all this, cells depend on the production and secretion of ECM, which might, as in higher eukaryotes, actively participate in the regulation of the group behaviour. This work presents an overview of the state-of-the-art on the composition and structure of the ECM produced by yeasts, and the inherent physicochemical properties so often undermined, as well as the available information on its production and delivery pathways.

酵母的细胞外基质:微生物生物学范式变化的关键参与者。
微生物传统上被认为是浮游生物,是相互独立生活的单个细胞。虽然这是事实,但自然界中的微生物大多生活在大型多物种群落中,形成复杂的生态系统。在这些群落中,微生物细胞通过细胞外基质(ECM)聚集在一起并在空间上组织起来。与高等真核生物组织的ECM不同,微生物的ECM,主要是酵母的ECM,研究仍然很少。然而,微生物生物膜是一个令人担忧的严重问题,因为它是由药理学耐药菌株引起的医院感染的原因,或者在气候变化下严重威胁植物健康和粮食安全。因此,了解生物膜或其他群落中细胞的组织和行为是极其重要的。在菌落或生物膜内,极其大量的单个微生物细胞粘附在惰性表面或活组织上,分化、死亡或繁殖并侵入邻近空间,通常遵循遗传决定的3D建筑程序。对于所有这些,细胞依赖于ECM的产生和分泌,这可能会像在高级真核生物中一样,积极参与群体行为的调节。这项工作概述了酵母产生的ECM的组成和结构,其固有的物理化学性质经常被破坏,以及其生产和输送途径的现有信息。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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