Transgenic medicinal plants as producers of bioactive substances

Q3 Agricultural and Biological Sciences Ecological genetics Pub Date : 2023-12-04 DOI:10.17816/ecogen567947
E. Y. Yembaturova, Yulia S. Cheryatova
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Abstract

The paper covers the questions of secondary metabolite modulation in medicinal plants by means of gene engineering. It is demonstrated that cutting-edge tools of contemporary biotechnology tools made it possible to manage the biosynthesis of important bioactive substances, modify the secondary metabolism, enabling plants to synthesize and produce new compounds, as well as eliminate metabolic pathways of synthesizing harmful substances. Currently, large-scale production of bioactive substances (BAS) requires highly productive plants to produce them. Applying methods of gene engineering to medicinal plants is a promising way to reduce the resource consumption and increase their productivity, quality and the product’s marketability [1]. Traditional growing and collecting techniques are challenged by resource shortage, environmental damage, etc. [2]. Gene engineering helps to increase pest, disease and herbicide resistance, gain greater yields and higher BAS content [3]. Using transgenic medicinal plants (TMP) as BAS producers in the pharmaceutical industry is crucial for metabolic engineering. Current research of the secondary metabolism modulation in TMP enables to modify the key BAS biosynthesis and the secondary metabolism, so that plants can produce new substances, or, on the contrary, silence the metabolic pathways for harmful ones. This way, greater TMP biomass with higher BAS content can be obtained in bioreactors. This would require rather modest investments — an advantage for biopharmacy. Nowadays, TMP are grown in vitro as calluses or suspension cell cultures. Biotechnology can modify the secondary metabolism in TMP to produce surplus amounts of necessary BAS, reduce the content of toxic compounds or even synthesize new substances. The versatility of transcription and translation mechanisms in medicinal plants enables them to accumulate homologous substances and synthesize heterologous ones. It is known that in TMP, MYB transcription factors are involved in gene regulation in secondary metabolic pathways, regulation of genes engaged in developmental processes, etc. [4]. In conclusion, we should emphasize the relative biosafety of BAS obtained from TMP, for human use, as they are chemically pure and are not connected with biological hazards.
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作为生物活性物质生产者的转基因药用植物
本文综述了利用基因工程技术调控药用植物次生代谢物的问题。研究表明,当代生物技术工具的尖端工具可以管理重要生物活性物质的生物合成,改变次生代谢,使植物能够合成和产生新的化合物,并消除合成有害物质的代谢途径。目前,大规模生产生物活性物质(BAS)需要高产的植物来生产。将基因工程技术应用于药用植物是减少资源消耗,提高其生产效率、质量和产品适销性的一条很有前景的途径[1]。传统的种植和采集技术受到资源短缺、环境破坏等问题的挑战[2]。基因工程有助于提高作物对病虫害和除草剂的抗性,获得更高的产量和BAS含量[3]。利用转基因药用植物(TMP)作为BAS的生产者在制药工业中具有重要意义。目前对TMP次生代谢调控的研究,可以通过调控关键的BAS生物合成和次生代谢,使植物产生新的物质,或者使有害物质的代谢途径沉默。这样,在生物反应器中可以获得更大的TMP生物量和更高的BAS含量。这将需要相当适度的投资——这对生物制药来说是一个优势。目前,TMP在体外培养为愈伤组织或悬浮细胞。生物技术可以改变TMP的次生代谢,产生多余的必需BAS,减少有毒化合物的含量,甚至合成新物质。药用植物转录和翻译机制的多样性使它们能够积累同源物质并合成异源物质。已知在TMP中,MYB转录因子参与了次级代谢途径的基因调控、参与发育过程的基因调控等[4]。总之,我们应该强调从TMP中获得的BAS用于人类的相对生物安全性,因为它们是化学纯的,与生物危害无关。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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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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