Courdavault Vincent, O'Connor Sarah E, Jensen Michael K, Papon Nicolas
University of Tours, EA2106, Faculty of Pharmacy, Tours, France.
Department of Natural Product Biosynthesis, Max Planck Institute for Chemical Ecology, 07745 Jena, Germany.
Nat Prod Rep. 2021 Dec 15;38(12):2145-2153. doi: 10.1039/d0np00092b.
Microorganisms and plants represent major sources of natural compounds with a plethora of bioactive properties. Among these, plant natural products (PNPs) remain indispensable to human health. With few exceptions, PNP-based pharmaceuticals come from plant specialized metabolisms and display a structure far too complex for a profitable production by total chemical synthesis. Accordingly, their industrial processes of supply are still mostly based on the extraction of final products or precursors directly from plant materials. This implies that particular contexts ( pandemics, climate changes) and natural resource overexploitation are main drivers for the high production cost and recurrent supply shortages. Recently, biotechnological manufacturing alternatives gave rise to a multitude of benchmark studies implementing the production of important PNPs in various heterologous hosts. Here, we spotlight unprecedented advancements in the field of metabolic engineering dedicated to the heterologous production of a prominent series of PNPs that were achieved during the year 2020. We also discuss how the knowledge accumulated in recent years could pave the way for a broader manufacturing palette of natural products from a wide range of natural resources.
微生物和植物是具有众多生物活性特性的天然化合物的主要来源。其中,植物天然产物(PNPs)对人类健康仍然不可或缺。除了少数例外,基于PNP的药物来自植物的特殊代谢,其结构过于复杂,无法通过全化学合成进行盈利生产。因此,它们的工业供应过程仍然主要基于直接从植物材料中提取最终产品或前体。这意味着特定情况(大流行、气候变化)和自然资源的过度开发是高生产成本和经常性供应短缺的主要驱动因素。最近,生物技术制造替代方案催生了大量基准研究,这些研究在各种异源宿主中实现了重要PNP的生产。在此,我们重点介绍了2020年在致力于一系列重要PNP异源生产的代谢工程领域取得的前所未有的进展。我们还讨论了近年来积累的知识如何为利用广泛的自然资源生产更广泛的天然产品制造方法铺平道路。