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Efficient production of clerodane and ent-kaurane diterpenes through truncated artificial pathways in Escherichia coli.


ABSTRACT: The clerodane and ent-kaurane diterpenoids are two typical categories of diterpenoid natural products with complicated polycyclic carbon skeletons and significant pharmacological activities. Despite exciting advances in organic chemistry, access to these skeletons is still highly challenging. Using synthetic biology to engineer microbes provides an innovative alternative to bypass synthetic challenges. In this study, we constructed two truncated artificial pathways to efficiently produce terpentetriene and ent-kaurene, two representative clerodane and ent-kaurane diterpenes, in Escherichia coli. Both pathways depend on the exogenous addition of isoprenoid alcohol to reinforce the supply of IPP and DMAPP via two sequential phosphorylation reactions. Optimization of these constructs provided terpentetriene and ent-kaurene titers of 66 ± 4 mg/L and 113 ± 7 mg/L, respectively, in shake-flask fermentation. The truncated pathways to overproduce clerodane and ent-kaurane skeletons outlined here may provide an attractive route to prepare other privileged diterpene scaffolds.

SUBMITTER: Li FR 

PROVIDER: S-EPMC9344551 | biostudies-literature | 2022

REPOSITORIES: biostudies-literature

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Efficient production of clerodane and <i>ent</i>-kaurane diterpenes through truncated artificial pathways in <i>Escherichia coli</i>.

Li Fang-Ru FR   Lin Xiaoxu X   Yang Qian Q   Tan Ning-Hua NH   Dong Liao-Bin LB  

Beilstein journal of organic chemistry 20220721


The clerodane and <i>ent</i>-kaurane diterpenoids are two typical categories of diterpenoid natural products with complicated polycyclic carbon skeletons and significant pharmacological activities. Despite exciting advances in organic chemistry, access to these skeletons is still highly challenging. Using synthetic biology to engineer microbes provides an innovative alternative to bypass synthetic challenges. In this study, we constructed two truncated artificial pathways to efficiently produce  ...[more]

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