Jul 2026· Current Opinion in Chemical Biology· Vol 94, pp.
102732
· 0 citations· 31 references
Medicine
TL;DR
This review highlights recent advances in redox-activated covalent chemistry and explores its burgeoning potential for the development of next-generation targeted therapeutics.
Abstract
Covalent drug discovery and chemical proteomics have historically relied on a nucleophilic logic, where electrophilic "warheads" react with nucleophilic amino acid side chains. While powerful, this paradigm probes only a single dimension of the protein's chemical surface. In contrast, biology leverages a second axis: redox potential. This is exemplified by the regulated redox proteome, where specific residues undergo reversible oxidation and reduction as functional post-translational modifications. Inspired by this natural machinery, researchers are developing redox-activated probes to label proteins at oxidizable residues and deploying similar chemistry to selectively perturb protein function. This review highlights recent advances in redox-activated covalent chemistry and explores its burgeoning potential for the development of next-generation targeted therapeutics.
A comparative overview of dual experimental and computational advancements is provided and how the integration of generative diffusion models could facilitate the real-time simulation of conditional, multi-state structural ensembles across the redox proteome is highlighted.
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