发展创造新的共生系统的方法

Q3 Agricultural and Biological Sciences Ecological genetics Pub Date : 2022-12-08 DOI:10.17816/ecogen112392
E. Dolgikh, Elizaveta S. Kantsurova, Alina M. Dymo
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引用次数: 0

摘要

植物与多种土壤微生物相互作用,其中与共生微生物的相互作用对植物来说最为重要。固氮根瘤菌与固氮根瘤菌共生为植物在缺氮土壤中生存提供了显著优势。由于只有来自Fabales和Rosales的植物(一种具有代表性的Parasponia)才会与结核菌共生,所以关于扩大进入这种相互作用的植物数量的想法变得流行起来。为了解决构建新的共生系统的问题,必须提供对共生体的识别(通过将受体基因转移到非豆科植物中)、根瘤的形态发生及其侵染。我们已经成功地将编码受体的基因引入根瘤菌的表面成分到非豆科植物中,它增加了根瘤菌的定植。它可以促进非豆科植物的生长发育,提高其对植物病原体的抗性。非豆科植物啤酒花葎草(Humulus lupulus)的基因组分析表明,存在参与共生调控的基因,但编码NIN转录因子等重要调控基因缺失。利用基因工程方法,培育了携带NIN转录因子基因的啤酒花植株。对这些植物的分析可以为非豆科植物的器官发生调控提供重要信息。这项工作由RSF 21-16-00106资助。
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The development of approaches to create new symbiotic systems
Plants interact with a wide range of soil microorganisms, while interactions with symbiotic microorganisms are the most important for them. Symbiosis with nitrogen-fixing nodule bacteria provides a significant advantage in the existence of plants in nitrogen-poor soils. Since only plants from the Fabales and Rosales (a single representative Parasponia) enter into symbiosis with nodule bacteria, an idea about expanding the number of plants entering into such interactions became popular. To solve the problem of constructing new symbiotic systems, it is necessary to provide recognition of the symbiont (by transferring receptor genes into non-legume plants), morphogenesis of the nodule, and its infection. We have managed to introduce the genes encoding receptors to surface components of rhizobia into the non-legume plants, and it provided increased colonization by nodule bacteria. It may improve the growth and development of non-legume plants and ensure their greater resistance to phytopathogens. Genome analysis of non-legume plant hop Humulus lupulus showed the existence of genes involved in symbiosis regulation, but some important regulators such as gene encoding NIN transcription factor were lost. Using genetic engineering approaches, the hop plants carrying the gene encoding NIN transcription factor were created. Analysis of these plants may provide important information about regulation of organogenesis in non-legume plants. The work was financially supported by RSF 21-16-00106.
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来源期刊
Ecological genetics
Ecological genetics Environmental Science-Ecology
CiteScore
0.90
自引率
0.00%
发文量
22
期刊介绍: The journal Ecological genetics is an international journal which accepts for consideration original manuscripts that reflect the results of field and experimental studies, and fundamental research of broad conceptual and/or comparative context corresponding to the profile of the Journal. Once a year, the editorial Board reviews and, if necessary, corrects the rules for authors and the journal rubrics.
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