Progress and challenges in traceless ligand-directed labelling chemistry

Abstract Traceless ligand-directed labelling (t-LDL) of proteins is emerging as a potential strategy for addressing the challenge of studying biology within native cellular contexts. By exploiting proximity-driven reactivity, t-LDL enables the selective transfer of small functional groups to residues distal to canonical binding or active sites, allowing the delivery ligand to dissociate following labelling. This review summarises the development of t-LDL chemistry, with a focus on transfer and catalyst-tethered approaches. It highlights key recent advances that expand the mechanistic and functional scope of t-LDL alongside outstanding challenges and opportunities for further development. Examples of applications in live-cell imaging, proteomics, proximity-induced post-translational modification and signalling rewiring, showcase the growing opportunities of this labelling technology.

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Publication Details

Journal
Communications Chemistry
Published
2026-09-29
DOI
https://doi.org/10.1038/s42004-026-02222-0
Primary Topic
Biotin and Related Studies
Type
article
Field-Weighted Citation Impact
0.00
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article

Progress and challenges in traceless ligand-directed labelling chemistry

Liam R. Cox, Andrew John Wilson, Toby Hopkinson
Communications Chemistry
Biotin and Related Studies
article

Progress and challenges in traceless ligand-directed labelling chemistry

Liam R. Cox, Andrew John Wilson, Toby Hopkinson
article en

Abstract

Abstract Traceless ligand-directed labelling (t-LDL) of proteins is emerging as a potential strategy for addressing the challenge of studying biology within native cellular contexts. By exploiting proximity-driven reactivity, t-LDL enables the selective transfer of small functional groups to residues distal to canonical binding or active sites, allowing the delivery ligand to dissociate following labelling. This review summarises the development of t-LDL chemistry, with a focus on transfer and catalyst-tethered approaches. It highlights key recent advances that expand the mechanistic and functional scope of t-LDL alongside outstanding challenges and opportunities for further development. Examples of applications in live-cell imaging, proteomics, proximity-induced post-translational modification and signalling rewiring, showcase the growing opportunities of this labelling technology.

Communications ChemistryVol. 9(1)
University of Leeds (GB), University of Birmingham (GB)
Openalex Percentile: Top 15%
Biotin and Related Studies
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