Jabborova Dilfuza, Mamarasulov Bakhodir, Davranov Kakhramon, Enakiev Yuriy, Bisht Neha, Singh Sachidanand, Stoyanov Svilen, Garg Amar P
Institute of Genetics and Plant Experimental Biology, Uzbekistan Academy of Sciences, 111208 Qibray, Uzbekistan.
Faculty of Biology, National University of Uzbekistan, 100174 Tashkent, Uzbekistan.
Indian J Microbiol. 2024 Jun;64(2):409-417. doi: 10.1007/s12088-024-01275-w. Epub 2024 May 29.
Microbes in the rhizosphere play a significant role in the growth, development, and efficiency of plants and trees. The rhizospheric area's microbes are reliant on the soil's characteristics and the substances that the plants release. The majority of previous research on medicinal plants concentrated on their bioactive phytochemicals, but this is changing now that it is understood that a large proportion of phytotherapeutic substances are actually created by related microorganisms or through contact with their host. The roots of medicinal plants secrete a large number of secondary metabolites that determine the diversity of microbial communities in their rhizosphere. The dominant bacteria isolated from a variety of medicinal plants include various species of , , , , , , , , , and Actinobacteria also colonize the rhizosphere of medicinal plants that release low molecular weight organic solute that facilitate the solubilisation of inorganic phosphate. Root exudates of medicinal plants resist abiotic stress and accumulate in soil to produce autotoxic effects that exhibit strong obstacles to continuous cropping. Although having a vast bioresource that may be used in agriculture and modern medicine, medicinal plants' microbiomes are largely unknown. The purpose of this review is to (i) Present new insights into the plant microbiome with a focus on medicinal plants, (ii) Provide information about the components of medicinal plants derived from plants and microbes, and (iii) Discuss options for promoting plant growth and protecting plants for commercial cultivation of medicinal plants. The scientific community has paid a lot of attention to the use of rhizobacteria, particularly plant growth-promoting rhizobacteria (PGPR), as an alternative to chemical pesticides. By a variety of processes, these rhizobacteria support plant growth, manage plant pests, and foster resilience to a range of abiotic challenges. It also focuses on how PGPR inoculation affects plant growth and survival in stressful environments.
根际微生物在植物和树木的生长、发育及效能方面发挥着重要作用。根际区域的微生物依赖于土壤特性以及植物释放的物质。以往关于药用植物的大多数研究都集中在其生物活性植物化学物质上,但现在情况正在发生变化,因为人们认识到很大一部分植物治疗物质实际上是由相关微生物产生或通过与宿主接触而形成的。药用植物的根会分泌大量次生代谢产物,这些次生代谢产物决定了其根际微生物群落的多样性。从多种药用植物中分离出的优势细菌包括各种 、 、 、 、 、 、 、 、 和 放线菌也会在释放低分子量有机溶质以促进无机磷酸盐溶解的药用植物根际定殖。药用植物的根系分泌物能够抵抗非生物胁迫,并在土壤中积累产生自毒效应,这对连作构成了严重障碍。尽管药用植物拥有可用于农业和现代医学的巨大生物资源,但其微生物群落大多仍不为人知。本综述的目的是:(i)提供对植物微生物群落的新见解,重点是药用植物;(ii)提供有关源自植物和微生物的药用植物成分的信息;(iii)讨论促进药用植物商业种植中植物生长和保护植物的选项。科学界非常关注根际细菌的应用,特别是植物促生根际细菌(PGPR),将其作为化学农药的替代品。通过多种过程,这些根际细菌支持植物生长、控制植物害虫并增强对一系列非生物挑战的抵抗力。它还关注PGPR接种对胁迫环境下植物生长和存活的影响。