根瘤菌胞外多糖(EPS)的结构及其在豆科细菌共生中的作用研究进展

Pallab Kumar Ghosh, Tushar Kanti Maiti
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引用次数: 45

摘要

共生重氮营养菌由一组非常多样化的革兰阴性土壤细菌组成,统称为豆科植物根瘤中的根瘤菌。根瘤菌适应于不同的环境,包括土壤、根际和生长在豆科植物根内,并在这些环境中固定氮。共生关系的建立是一个非常复杂的过程,涉及豆科植物与共生体之间协调的信号交换。结节的形成需要Nod因子等信号分子的合成,这些信号分子对结节的形成具有重要的诱导作用。根瘤菌中存在不同类型的表面多糖,如脂多糖、荚膜多糖、中性多糖和酸性多糖。共生活性多糖的产生可以使根瘤菌适应不断变化的环境条件,并与豆科植物有效地相互作用。尽管有广泛的研究,根瘤菌表面多糖在共生中的实际分子功能尚不清楚。本文综述了从不同豆科植物分离的不同根瘤菌的胞外多糖的结构组成。不同根瘤菌的胞外多糖组成不同。共生体产生的胞外多糖的各种组成被认为是决定寄主植物特异性所必需的信号分子。本文综述了外显多糖在豆科植物共生体中寄主特异性、侵染成功、侵染线形成和诱导结瘤等生物学功能的研究现状。
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Structure of Extracellular Polysaccharides (EPS) Produced by Rhizobia and their Functions in Legume–Bacteria Symbiosis: — A Review

The symbiotic diazotrophs comprise with a very diverse group of Gram negative soil bacteria, collectively called as rhizobia found in nodule of legume plant. Rhizobia adopt themselves in different environment including soil, rhizosphere and grown within legume roots, where they fix nitrogen. The establishment of symbiosis is a very complicated process involving a coordinated exchange of signal between legume plants and the symbionts. The nodule development requires synthesis of signal molecules such as Nod factors that are important for induction of nodule development. There are different types of surface polysaccharides such as lipopolysaccharides, capsular polysaccharides, neutral and acidic polysaccharides found in rhizobia. The production of symbiotically active polysaccharides may allow rhizobial strains to adapt themselves to changing environmental conditions and interact efficiently with legume plants. Despite extensive research, the actual molecular function of the surface polysaccharides of rhizobia in symbiosis remains unclear. This review emphasized on the structural composition of extracellular polysaccharide of different rhizobia isolated from different legume plants. The compositions of extracellular polysaccharides are different in different rhizobia. The various compositions of extracellular polysaccharides produced by the symbionts are considered as the signaling molecules essential for determining host plant specificity. The present status of the biological functions of the exo-polysaccharide in symbiosis such as host specificity, successful invasion, formation of infection thread and induction of nodule formation in legume plants is also summarized here.

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