Photochemical Synthesis of DNA-Encoded 3 <i>H</i> -Azepines via Skeletal Editing of Nitroarenes

We report a skeletal editing strategy based on DNA-encoded nitroarenes for the direct conversion of benzene cores into valuable 3<i>H</i>-azepine scaffolds. This transformation is efficiently promoted by visible light in the presence of P(O<i>i</i>-Pr)<sub>3</sub>, which serves as a reductant to generate reactive nitrene intermediates from the nitro group. Demonstrating broad substrate scope with applicability to pharmaceutical molecules, this protocol offers an efficient and versatile route to DNA-encoded 3<i>H</i>-azepine derivatives. It thus establishes a robust platform for skeletal diversification in DNA-encoded library synthesis.

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Publication Details

Journal
Organic Letters
Published
2026-02-24
DOI
https://doi.org/10.1021/acs.orglett.6c00234
Primary Topic
Chemical Synthesis and Analysis
Type
article
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article

Photochemical Synthesis of DNA-Encoded 3 H -Azepines via Skeletal Editing of Nitroarenes

Jia-ying Xue, Xue-jing Zhang, Yong Zou, Jia-hui Shi et al.
Organic Letters
Chemical Synthesis and Analysis
article

Photochemical Synthesis of DNA-Encoded 3 H -Azepines via Skeletal Editing of Nitroarenes

Jia-ying Xue, Xue-jing Zhang, Yong Zou, Jia-hui Shi, Ming Yan, Wei-en Xie, Yuan Yao
article en

Abstract

We report a skeletal editing strategy based on DNA-encoded nitroarenes for the direct conversion of benzene cores into valuable 3<i>H</i>-azepine scaffolds. This transformation is efficiently promoted by visible light in the presence of P(O<i>i</i>-Pr)<sub>3</sub>, which serves as a reductant to generate reactive nitrene intermediates from the nitro group. Demonstrating broad substrate scope with applicability to pharmaceutical molecules, this protocol offers an efficient and versatile route to DNA-encoded 3<i>H</i>-azepine derivatives. It thus establishes a robust platform for skeletal diversification in DNA-encoded library synthesis.

Organic LettersVol. 28(9)
Sun Yat-sen University (CN), Drug Discovery Laboratory (Norway) (NO)
Openalex Percentile: Top 44%
Chemical Synthesis and Analysis
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