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Yeast cell differentiation: Lessons from pathogenic and non-pathogenic yeasts

机译:酵母细胞分化:病原性和非病原性酵母的教训

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摘要

Yeasts, historically considered to be single-cell organisms, are able to activate different differentiation processes. Individual yeast cells can change their life-styles by processes of phenotypic switching such as the switch from yeast-shaped cells to filamentous cells (pseudohyphae or true hyphae) and the transition among opaque, white and gray cell-types. Yeasts can also create organized multicellular structures such as colonies and biofilms, and the latter are often observed as contaminants on surfaces in industry and medical care and are formed during infections of the human body. Multicellular structures are formed mostly of stationary-phase or slow-growing cells that diversify into specific cell subpopulations that have unique metabolic properties and can fulfill specific tasks. In addition to the development of multiple protective mechanisms, processes of metabolic reprogramming that reflect a changed environment help differentiated individual cells and/or community cell constituents to survive harmful environmental attacks and/or to escape the host immune system. This review aims to provide an overview of differentiation processes so far identified in individual yeast cells as well as in multicellular communities of yeast pathogens of the Candida and Cryptococcus spp. and the Candida albicans close relative, Saccharomyces cerevisiae. Molecular mechanisms and extracellular signals potentially involved in differentiation processes are also briefly mentioned. (C) 2016 Elsevier Ltd. All rights reserved.
机译:从历史上看,酵母是单细胞生物,能够激活不同的分化过程。单个酵母细胞可以通过表型转换过程改变其生活方式,例如从酵母形细胞转换为丝状细胞(假菌丝或真菌丝),以及在不透明,白色和灰色细胞类型之间转换。酵母还可以产生有组织的多细胞结构,例如菌落和生物膜,而后者通常在工业和医疗保健中被视为表面污染物,并在人体感染过程中形成。多细胞结构主要由固定相或生长缓慢的细胞形成,这些细胞分化成具有独特代谢特性并可以完成特定任务的特定细胞亚群。除了开发多种保护机制外,反映环境变化的代谢重编程过程还有助于分化的单个细胞和/或社区细胞成分在有害的环境攻击中生存和/或逃脱宿主免疫系统。这篇综述旨在概述迄今为止在单个酵母细胞以及假丝酵母和隐球菌属酵母菌病原体的多细胞群落中鉴定出的分化过程。与白色念珠菌近亲,酿酒酵母。还简要提到了可能参与分化过程的分子机制和细胞外信号。 (C)2016 Elsevier Ltd.保留所有权利。

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