Biomolecules and Biotechnologies Végétales, EA2106, University of Tours, 37200, Tours, France; Evonik Advanced Botanicals, 220 Rue Henri Potez, 37210, Parçay-Meslay, France.
Biomolecules and Biotechnologies Végétales, EA2106, University of Tours, 37200, Tours, France.
Curr Opin Plant Biol. 2024 Dec;82:102620. doi: 10.1016/j.pbi.2024.102620. Epub 2024 Sep 5.
Medicinal plants produce specialized metabolites (SM) that are used as drugs. However, due to low yields of field cultivation and the increasing market demand, this production method often failed to meet supply needs. Biotechnological alternatives, such as in vitro plant cultures, offer promising solutions. Nonetheless, SM production in these systems remains too low for industrial exploitation, necessitating an elicitation step to induce the plant defense metabolism. Traditional elicitation methods mimic environmental conditions that trigger plant-specialized metabolism, often with an artificial signal that mimics microbial interaction. Recent insights into the essential role of the plant microbiota, provides new opportunities for elicitation strategies by microbial coculture in a controlled environment. The successful co-culture of in vitro medicinal plants with synthetic microbial communities could enable sustainable production of pharmaceutically important SM.
药用植物产生的特殊代谢物 (SM) 被用作药物。然而,由于田间栽培产量低,市场需求不断增加,这种生产方法往往无法满足供应需求。生物技术替代方法,如体外植物培养,提供了有希望的解决方案。尽管如此,这些系统中的 SM 产量仍然太低,无法进行工业开发,因此需要进行诱导步骤来诱导植物防御代谢。传统的诱导方法模拟触发植物特殊代谢的环境条件,通常使用模仿微生物相互作用的人工信号。最近对植物微生物组的重要作用的深入了解为通过微生物共培养在受控环境中进行诱导策略提供了新的机会。在体外培养的药用植物与合成微生物群落的成功共培养可以实现具有重要药用价值的 SM 的可持续生产。