The construction and optimization of engineered yeast chassis for efficient biosynthesis of 8‐hydroxygeraniol

mLife Pub Date : 2023-12-26 DOI:10.1002/mlf2.12099
Yu Zhang, Mengdi Yuan, Xinxin Wu, Qiuhui Zhang, Yuzhu Wang, Liming Zheng, Tsan-Yu Chiu, Huiming Zhang, Lei Lan, Feng Wang, Ying Liao, Xuemei Gong, Shirui Yan, Yun Wang, Yue Shen, Xian Fu
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Abstract

Microbial production of monoterpenoid indole alkaloids (MIAs) provides a sustainable and eco‐friendly means to obtain compounds with high pharmaceutical values. However, efficient biosynthesis of MIAs in heterologous microorganisms is hindered due to low supply of key precursors such as geraniol and its derivative 8‐hydroxygeraniol catalyzed by geraniol 8‐hydroxylase (G8H). In this study, we developed a facile evolution platform to screen strains with improved yield of geraniol by using the SCRaMbLE system embedded in the Sc2.0 synthetic yeast and confirmed the causal role of relevant genomic targets. Through genome mining, we identified several G8H enzymes that perform much better than the commonly used CrG8H for 8‐hydroxygeraniol production in vivo. We further showed that the N‐terminus of these G8H enzymes plays an important role in cellular activity by swapping experiments. Finally, the combination of the engineered chassis, optimized biosynthesis pathway, and utilization of G8H led to the final strain with more than 30‐fold improvement in producing 8‐hydroxygeraniol compared with the starting strain. Overall, this study will provide insights into the construction and optimization of yeast cells for efficient biosynthesis of 8‐hydroxygeraniol and its derivatives.
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构建和优化用于高效生物合成 8-羟基苯乙醇的工程酵母底盘
单萜吲哚生物碱(MIAs)的微生物生产为获得具有高药用价值的化合物提供了一种可持续的环保方法。然而,由于关键前体(如香叶醇及其由香叶醇 8-羟化酶(G8H)催化的衍生物 8-羟基香叶醇)供应不足,异源微生物中 MIAs 的高效生物合成受到阻碍。在本研究中,我们开发了一个简便的进化平台,利用内嵌于 Sc2.0 合成酵母中的 SCRaMbLE 系统筛选可提高香叶醇产量的菌株,并确认了相关基因组靶标的因果作用。通过基因组挖掘,我们发现了几种 G8H 酶,它们在体内生产 8-羟基香叶醇方面的表现比常用的 CrG8H 好得多。通过交换实验,我们进一步发现这些 G8H 酶的 N 端在细胞活性中起着重要作用。最后,结合工程底盘、优化的生物合成途径和 G8H 的利用,最终菌株在生产 8-羟基geraniol方面比初始菌株提高了 30 多倍。总之,这项研究将为构建和优化酵母细胞以高效生物合成 8-羟基geraniol及其衍生物提供启示。
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