海洋藻类相关细菌马林单胞菌 NFXS50 的吲哚-3-乙酸分解代谢基因组学研究。

Access microbiology Pub Date : 2024-09-04 eCollection Date: 2024-01-01 DOI:10.1099/acmi.0.000856.v3
Constança Bertrand, Rodrigo Martins, Francisco Nunes, Pedro Brandão, Francisco X Nascimento
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引用次数: 0

摘要

主要以吲哚-3-乙酸(IAA)形式存在的辅助素对植物和藻类的生长发育有多方面的调节作用。因此,植物和藻类相关细菌发展出了调节 IAA 水平(包括 IAA 分解)的能力。在这项工作中,我们展示并分析了降解 IAA 的海洋藻类相关细菌马林单胞菌 NFXS50 的基因组序列,分析了其 IAA 分解基因簇,并研究了其他马林单胞菌基因组中 IAA 分解基因的普遍性。我们的研究结果表明,在菌株 NFXS50 的基因组中存在假单胞菌 iac 基因簇的同源物,这些同源物与 IAA 分解作用有关;然而,与含有 iac 的模式假单胞菌 Putida 1290 相比,我们观察到马林单胞菌 iac 基因簇的内容和组织存在差异。这些差异表明,IAA 分解途径的潜在适应性可能受到底物可用性和进化因素的影响。iac 基因在多个海洋单胞菌物种中的普遍存在强调了 IAA 分解在海洋环境中的重要性,可能会影响植物/藻类-细菌之间的相互作用。这项研究为了解海单胞菌的 IAA 分解代谢提供了新的视角,为今后研究 iac 基因在海单胞菌生理学中的作用以及海洋植物/藻类-细菌相互作用的调控奠定了基础。
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Genomic insights into indole-3-acetic acid catabolism in the marine algae-associated bacterium, Marinomonas sp. NFXS50.

Auxins, mainly in the form of indole-3-acetic acid (IAA), regulate several aspects of plant and algal growth and development. Consequently, plant and algae-associated bacteria developed the ability to modulate IAA levels, including IAA catabolism. In this work, we present and analyse the genome sequence of the IAA-degrading and marine algae-associated bacterium, Marinomonas sp. NFXS50, analyse its IAA catabolism gene cluster and study the prevalence of IAA catabolism genes in other Marinomonas genomes. Our findings revealed the presence of homologs of the Pseudomonas iac gene cluster, implicated in IAA catabolism, in the genome of strain NFXS50; however, differences were observed in the content and organization of the Marinomonas iac gene cluster when compared to that of the model iac-containing Pseudomonas putida 1290. These variations suggest potential adaptations in the IAA catabolism pathway, possibly influenced by substrate availability and evolutionary factors. The prevalence of iac genes across several Marinomonas species underscores the significance of IAA catabolism in marine environments, potentially influencing plant/algae-bacteria interactions. This study provides novel insights into the IAA catabolism in Marinomonas, laying the groundwork for future investigations into the role of iac genes in Marinomonas physiology and the regulation of marine plant/algae-bacteria interactions.

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