Non‐Canonical C<sub>16</sub> Homoterpene Biosynthesis Widespread in Actinobacteria

A novel biosynthetic pathway towards the rare and underexplored non-canonical family of homoterpenes was discovered in actinobacteria through targeted genome mining and enzymatic in vitro reconstitution. The pathway comprises initial methylation-induced double bond isomerization of farnesyl diphosphate (FPP) to (2E,7E)-6-methyl-farnesyl diphosphate, catalyzed by a novel family of methyltransferases with unique dual function. The resulting linear C<sub>16</sub> double bond isomer of FPP constitutes the specific substrate for a distinct family of type I terpene cyclases, catalyzing diverse cyclization reactions. Functional characterization of nine enzyme pairs led to discovery of five unprecedented homoterpene natural products. The enzymological novelty enables the development of novel biocatalytic and genetically programmable synthetic strategies towards methylated terpenoids with potentially unique properties ("magic methyl effect").

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Publication Details

Journal
Angewandte Chemie International Edition
Published
2024-11-22
DOI
https://doi.org/10.1002/anie.202418613
Citations
13
Primary Topic
Plant biochemistry and biosynthesis
Type
article
Field-Weighted Citation Impact
3.04
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article

Non‐Canonical C16 Homoterpene Biosynthesis Widespread in Actinobacteria

Lena Barra, Katrin Zoller, Károly Rácz, Tatjana Reuter et al.
13 citations
Angewandte Chemie International Edition
Plant biochemistry and biosynthesis
3.04
article

Non‐Canonical C16 Homoterpene Biosynthesis Widespread in Actinobacteria

Lena Barra, Katrin Zoller, Károly Rácz, Tatjana Reuter, Lin Zhou, Lars Dieminger, Sarah Steidle, Maximilian Holocher, Dominik Matthias Hanauska
article en
13 citations

Abstract

A novel biosynthetic pathway towards the rare and underexplored non-canonical family of homoterpenes was discovered in actinobacteria through targeted genome mining and enzymatic in vitro reconstitution. The pathway comprises initial methylation-induced double bond isomerization of farnesyl diphosphate (FPP) to (2E,7E)-6-methyl-farnesyl diphosphate, catalyzed by a novel family of methyltransferases with unique dual function. The resulting linear C<sub>16</sub> double bond isomer of FPP constitutes the specific substrate for a distinct family of type I terpene cyclases, catalyzing diverse cyclization reactions. Functional characterization of nine enzyme pairs led to discovery of five unprecedented homoterpene natural products. The enzymological novelty enables the development of novel biocatalytic and genetically programmable synthetic strategies towards methylated terpenoids with potentially unique properties ("magic methyl effect").

Angewandte Chemie International EditionVol. 64(5)
University of Konstanz (DE)
Openalex Percentile: Top 8%
Plant biochemistry and biosynthesis
3.04
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