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解读细菌化学排斥作用:微生物对环境刺激的复杂反应

Deciphering Bacterial Chemorepulsion: The Complex Response of Microbes to Environmental Stimuli.

作者信息

Fu Ruixin, Feng Haichao

机构信息

School of Biology and Food, Shangqiu Normal University, Shangqiu 476000, China.

College of Agriculture, Henan University, Kaifeng 475004, China.

出版信息

Microorganisms. 2024 Aug 18;12(8):1706. doi: 10.3390/microorganisms12081706.

Abstract

Bacterial motility relying on flagella is characterized by several modes, including swimming, swarming, twitching, and gliding. This motility allows bacteria to adapt remarkably well to hostile environments. More than 50% of bacteria naturally contain flagella, which are crucial for bacterial chemotaxis motility. Chemotaxis can be either positive, where bacteria move towards a chemical source, or negative, known as chemorepulsion, where bacteria move away from the source. Although much is known about the mechanisms driving chemotaxis towards attractants, the molecular mechanisms underlying chemorepulsion remain elusive. Chemotaxis plays an important role in the colonization of the rhizosphere by rhizobacteria. Recently, researchers have systematically studied the identification and recognition mechanisms of chemoattractants. However, the mechanisms underlying chemorepellents remain unclear. Systematically sorting and analyzing research on chemorepellents could significantly enhance our understanding of how these compounds help probiotics evade harmful environments or drive away pathogens.

摘要

依赖鞭毛的细菌运动具有多种模式,包括游动、群游、颤动和滑行。这种运动使细菌能够非常好地适应恶劣环境。超过50%的细菌天然含有鞭毛,鞭毛对于细菌的趋化性运动至关重要。趋化性可以是正向的,即细菌向化学源移动,也可以是负向的,即化学排斥,细菌远离化学源。尽管人们对驱动细菌向吸引物趋化的机制了解很多,但化学排斥背后的分子机制仍然难以捉摸。趋化性在根际细菌在根际的定殖中起重要作用。最近,研究人员系统地研究了化学引诱剂的识别和识别机制。然而,化学驱避剂背后的机制仍不清楚。系统地分类和分析关于化学驱避剂的研究可以显著增强我们对这些化合物如何帮助益生菌避开有害环境或驱离病原体的理解。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/d735/11357200/16a2462ae59c/microorganisms-12-01706-g001.jpg

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