Metabolic engineering in hairy roots: An outlook on production of plant secondary metabolites

次生代谢物 代谢工程 毛状根培养 次生代谢 生物 代谢途径 代谢物 初级代谢物 生物技术 农杆菌 代谢组学 计算生物学 生化工程 生物化学 生物信息学 基因 工程类 生物合成 转化(遗传学)
作者
Diksha Bagal,Aksar Ali Chowdhary,Shakti Mehrotra,Sonal Mishra,Sonica Rathore,Vikas Srivastava
出处
期刊:Plant Physiology and Biochemistry [Elsevier]
卷期号:201: 107847-107847 被引量:12
标识
DOI:10.1016/j.plaphy.2023.107847
摘要

Plants are one of the vital sources of secondary metabolites. These secondary metabolites have diverse roles in human welfare, including therapeutic implication. Nevertheless, secondary metabolite yields obtained through the exploitation of natural plant populations is insufficient to meet the commercial demand due to their accumulation in low volumes. Besides, in-planta synthesis of these important metabolites is directly linked with the age and growing conditions of the plant. Such limitations have paved the way for the exploration of alternative production methodologies. Hairy root cultures, induced after the interaction of plants with Rhizobium rhizogenes (Agrobacterium rhizogenes), are a practical solution for producing valuable secondary metabolite at low cost and without the influence of seasonal, geographic or climatic variations. Hairy root cultures also offer the opportunity to get combined with other yield enhancements strategies (precursor feeding, elicitation and metabolic engineering) to further stimulate and/or enhance their production potential. Applications of metabolic engineering in exploiting hairy root cultures attracted the interest of several research groups as a means of yield enhancement. Currently, several engineering approaches like overexpression and silencing of pathway genes, and transcription factor overexpression are used to boost metabolite production, along with the contextual success of genome editing. This review attempts to cover metabolic engineering in hairy roots for the production of secondary metabolites, with a primary emphasis on alkaloids, and discusses prospects for taking this research forward to meet desired production demands.
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