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NIN 样蛋白:在与非豆科植物宿主相互作用过程中,根瘤菌诱导的硝酸盐信号响应中的有趣参与者。

NIN-Like Proteins: Interesting Players in Rhizobia-Induced Nitrate Signaling Response During Interaction with Non-Legume Host .

机构信息

Cell Biology, Faculty of Biology, University of Freiburg, 79104 Freiburg, Germany.

CIBSS-Centre of Integrative Biological Signalling Studies, University of Freiburg, 79104 Freiburg, Germany.

出版信息

Mol Plant Microbe Interact. 2022 Mar;35(3):230-243. doi: 10.1094/MPMI-10-21-0261-R. Epub 2022 Mar 10.

DOI:10.1094/MPMI-10-21-0261-R
PMID:34813707
Abstract

Nitrogen is an essential macronutrient and a key cellular messenger. Plants have evolved refined molecular systems to sense the cellular nitrogen status. This is exemplified by the root nodule symbiosis between legumes and symbiotic rhizobia, where nitrate availability inhibits this mutualistic interaction. Additionally, nitrate also functions as a metabolic messenger, resulting in nitrate signaling cascades which intensively crosstalk with other physiological pathways. Nodule inception-like proteins (NLPs) are key players in nitrate signaling and regulate nitrate-dependent transcription during legume-rhizobia interactions. Nevertheless, the coordinated interplay between nitrate signaling pathways and rhizobacteria-induced responses remains to be elucidated. In our study, we investigated rhizobia-induced changes in the root system architecture of the non-legume host arabidopsis under different nitrate conditions. We demonstrate that rhizobium-induced lateral root growth and increased root hair length and density are regulated by a nitrate-related signaling pathway. Key players in this process are and , because the corresponding mutants failed to respond to rhizobia. At the cellular level, and control a rhizobia-induced decrease in cell elongation rates, while additional cell divisions occurred independently of . In summary, our data suggest that root morphological responses to rhizobia are coordinated by a newly considered nitrate-related NLP pathway that is evolutionarily linked to regulatory circuits described in legumes.[Formula: see text] Copyright © 2022 The Author(s). This is an open access article distributed under the CC BY 4.0 International license.

摘要

氮是一种必需的大量营养素和关键的细胞信使。植物已经进化出精细的分子系统来感知细胞的氮状态。豆类和共生根瘤菌之间的根瘤共生就是一个很好的例子,硝酸盐的可用性抑制了这种互利共生的相互作用。此外,硝酸盐还作为一种代谢信使,导致硝酸盐信号级联反应与其他生理途径强烈相互作用。根瘤起始样蛋白(NLPs)是硝酸盐信号转导的关键因子,在豆科植物-根瘤菌相互作用过程中调节硝酸盐依赖的转录。然而,硝酸盐信号通路与根瘤菌诱导的反应之间的协调相互作用仍有待阐明。在我们的研究中,我们研究了不同硝酸盐条件下非豆科宿主拟南芥根系的根瘤菌诱导的根系结构变化。我们证明,根瘤菌诱导的侧根生长和增加的根毛长度和密度受与硝酸盐相关的信号通路调节。这个过程中的关键因子是 和 ,因为相应的突变体不能对根瘤菌做出反应。在细胞水平上, 和 控制根瘤菌诱导的细胞伸长率降低,而额外的细胞分裂发生在不依赖 的情况下。总之,我们的数据表明,根形态对根瘤菌的反应是由一个新考虑的与硝酸盐相关的 NLP 途径协调的,该途径与在豆科植物中描述的调节回路在进化上是相关的。[公式:见正文]版权所有©2022 作者。这是一个开放获取的文章,根据 CC BY 4.0 国际许可分发。

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Comprehensive integration of single-cell transcriptomic data illuminates the regulatory network architecture of plant cell fate specification.单细胞转录组数据的全面整合揭示了植物细胞命运决定的调控网络结构。
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What do we know from the transcriptomic studies investigating the interactions between plants and plant growth-promoting bacteria?
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Front Plant Sci. 2022 Sep 15;13:997308. doi: 10.3389/fpls.2022.997308. eCollection 2022.