Harnessing evolution: leveraging bacterial isoprenoid pathway diversity toward improved bioengineering strategies

Isoprenoids play vital roles in all domains of life, from beta-carotene in bacteria to heme in humans. Two distinct metabolic pathways have evolved to synthesize the critical precursor of all mature isoprenoids: the mevalonate (MEV) and the methylerythritol phosphate (MEP) pathways. Here, we quantify the extensive inter- and intra-genus heterogeneity in the usage of these two pathways with particular emphasis on rare bacteria that encode both, or neither, pathways. Furthermore, MEP intermediates themselves have non-isoprenogenic roles that may underlie evolutionary pressures driving pathway diversification. Understanding isoprenoid biosynthesis in bacteria offers new avenues toward more sustainable engineering of economically relevant molecules in microbes.

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Publication Details

Journal
Journal of Bacteriology
Published
2026-02-17
DOI
https://doi.org/10.1128/jb.00441-25
Primary Topic
Plant biochemistry and biosynthesis
Type
article
Field-Weighted Citation Impact
0.00
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article

Harnessing evolution: leveraging bacterial isoprenoid pathway diversity toward improved bioengineering strategies

Robert Landick, Christine M. Qabar, Bailey A. Marshall, Jeffery S. Cox
Journal of Bacteriology
Plant biochemistry and biosynthesis
article

Harnessing evolution: leveraging bacterial isoprenoid pathway diversity toward improved bioengineering strategies

Robert Landick, Christine M. Qabar, Bailey A. Marshall, Jeffery S. Cox
article en

Abstract

Isoprenoids play vital roles in all domains of life, from beta-carotene in bacteria to heme in humans. Two distinct metabolic pathways have evolved to synthesize the critical precursor of all mature isoprenoids: the mevalonate (MEV) and the methylerythritol phosphate (MEP) pathways. Here, we quantify the extensive inter- and intra-genus heterogeneity in the usage of these two pathways with particular emphasis on rare bacteria that encode both, or neither, pathways. Furthermore, MEP intermediates themselves have non-isoprenogenic roles that may underlie evolutionary pressures driving pathway diversification. Understanding isoprenoid biosynthesis in bacteria offers new avenues toward more sustainable engineering of economically relevant molecules in microbes.

Journal of BacteriologyVol. 208(3)
University of Wisconsin–Madison (US), Great Lakes Bioenergy Research Center (US), University of California, Berkeley (US)
Responsible consumption and production
Openalex Percentile: Top 52%
Plant biochemistry and biosynthesis
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