Microbially Derived P═S and P═Se Bond Formation

Microbial metabolism is a diverse and sustainable source of synthetic reagents that can be programmed for controlled and high-level production via synthetic biology. However, despite the chemical diversity of metabolism, the chemical utility of metabolites, and the available tools to control metabolic chemistry, there remain few examples of the use of cellular metabolites directly for chemical synthesis. Herein, we report that diverse bacteria perform P=S bond formation (Ph<sub>3</sub>P to Ph<sub>3</sub>PS) via central sulfur metabolism and nonenzymatic chemistry <i>in vivo</i>, which can also be applied to affect microbial P=Se bond formation (Ph<sub>3</sub>PSe). To the best of our knowledge, this is the first biochemical and genetic investigation of P=S bond formation in a microbial cell and the first use of microbial metabolites for P=Se bond formation in chemical synthesis.

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Publication Details

Journal
JACS Au
Published
2025-03-29
DOI
https://doi.org/10.1021/jacsau.5c00262
Primary Topic
Biotin and Related Studies
Type
article
Field-Weighted Citation Impact
0.00

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article

Microbially Derived P═S and P═Se Bond Formation

Stephen Wallace, Yuta Era, Connor L. Trotter, Samantha Law et al.
JACS Au
Biotin and Related Studies
article

Microbially Derived P═S and P═Se Bond Formation

Stephen Wallace, Yuta Era, Connor L. Trotter, Samantha Law, Christopher Switzer, Rory Gordon
article en

Abstract

Microbial metabolism is a diverse and sustainable source of synthetic reagents that can be programmed for controlled and high-level production via synthetic biology. However, despite the chemical diversity of metabolism, the chemical utility of metabolites, and the available tools to control metabolic chemistry, there remain few examples of the use of cellular metabolites directly for chemical synthesis. Herein, we report that diverse bacteria perform P=S bond formation (Ph<sub>3</sub>P to Ph<sub>3</sub>PS) via central sulfur metabolism and nonenzymatic chemistry <i>in vivo</i>, which can also be applied to affect microbial P=Se bond formation (Ph<sub>3</sub>PSe). To the best of our knowledge, this is the first biochemical and genetic investigation of P=S bond formation in a microbial cell and the first use of microbial metabolites for P=Se bond formation in chemical synthesis.

JACS AuVol. 5(4)
University of Leicester (GB), University of Aberdeen (GB), Quantitative BioSciences (US), University of Edinburgh (GB)
UK Research and Innovation, Royal Society
Openalex Percentile: Top 93%
Biotin and Related Studies
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