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卫矛醇生物合成中 Friedelane 型三萜环化酶及其在酵母中三萜生物合成的应用。

Friedelane-type triterpene cyclase in celastrol biosynthesis from Tripterygium wilfordii and its application for triterpenes biosynthesis in yeast.

机构信息

School of Traditional Chinese Medicine, Capital Medical University, Beijing, 100069, China.

School of Pharmaceutical Science, Capital Medical University, Beijing, 100069, China.

出版信息

New Phytol. 2019 Jul;223(2):722-735. doi: 10.1111/nph.15809. Epub 2019 Apr 19.

DOI:10.1111/nph.15809
PMID:30895623
Abstract

Celastrol is a promising bioactive compound isolated from Tripterygium wilfordii and has been shown to possess many encouraging preclinical applications. However, the celastrol biosynthetic pathway is poorly understood, especially the key oxidosqualene cyclase (OSC) enzyme responsible for cyclisation of the main scaffold. Here, we report on the isolation and characterisation of three OSCs from T. wilfordii: TwOSC1, TwOSC2 and TwOSC3. Both TwOSC1 and TwOSC3 were multiproduct friedelin synthases, while TwOSC2 was a β-amyrin synthase. We further found that TwOSC1 and TwOSC3 were involved in the biosynthesis of celastrol and that their common product, friedelin, was a precursor of celastrol. We then reconstituted the biosynthetic pathway of friedelin in engineered yeast constructed by the CRISPR/Cas9 system, with protein modification and medium optimisation, leading to heterologous production of friedelin at 37.07 mg l in a shake flask culture. Our study was the first to identify the genes responsible for biosynthesis of the main scaffold of celastrol and other triterpenes in T. wilfordii. As friedelin has been found in many plants, the results and approaches described here have laid a solid foundation for further explaining the biosynthesis of celastrol and related triterpenoids. Moreover, our results provide insights for metabolic engineering of friedelane-type triterpenes.

摘要

雷公藤红素是从雷公藤中分离得到的一种有前途的生物活性化合物,已显示出许多令人鼓舞的临床前应用。然而,雷公藤红素的生物合成途径知之甚少,特别是负责主支架环化的关键角鲨烯环化酶(OSC)酶。在这里,我们报告了从雷公藤中分离和鉴定的三种 OSCs:TwOSC1、TwOSC2 和 TwOSC3。TwOSC1 和 TwOSC3 都是多功能的羽扇豆醇合酶,而 TwOSC2 是 β-香树脂醇合酶。我们进一步发现,TwOSC1 和 TwOSC3 参与了雷公藤红素的生物合成,它们的共同产物羽扇烯醇是雷公藤红素的前体。然后,我们通过 CRISPR/Cas9 系统构建的工程酵母重建了羽扇烯醇的生物合成途径,通过蛋白质修饰和培养基优化,在摇瓶培养中异源生产羽扇烯醇,产量为 37.07mg/L。我们的研究首次鉴定了雷公藤中负责合成雷公藤红素和其他三萜类化合物主支架的基因。由于在许多植物中都发现了羽扇烯醇,因此这里描述的结果和方法为进一步解释雷公藤红素和相关三萜类化合物的生物合成奠定了坚实的基础。此外,我们的结果为法呢烷型三萜类化合物的代谢工程提供了思路。

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