Research overview

Chemical biology of glycans: from reading and editing to engineering.

We focus on the chemical biology of functional assemblies. Our work follows a "read–edit–engineer" framework along two axes — glycans on proteins and glycans on RNA — and turns mechanistic understanding into controllable cellular programmes and disease interventions.

Research directions

One framework, three threads

The glycome underpins molecular interaction and information flow in living systems. Along the protein- and RNA-glycan axes, we ask three questions in sequence: can we edit glycans precisely? how do their functions unfold? and can we convert that knowledge into diagnostics and therapeutics?

A schematic of the "read–edit–engineer" framework for glycan chemical biology, spanning the protein-glycan and RNA-glycan axes.

Precise Glycan Editing

We develop spatiotemporally resolved, substrate-selective editing tools and interface-level interventions along both protein-glycan and RNA-glycan axes to enable precise glycan control in defined biological contexts.

Editing toolsProtein glycansRNA glycans

Functional Decoding

Using interdisciplinary chemical-biology tools, we dissect functional interactions between glycans and proteins/RNA in defined spatial and state contexts — from biomolecular condensates to the plasma membrane — and study how glycans shape transcription, translation, and other fundamental cellular processes.

CondensatesTranscriptionTranslation

Translational Applications

We map functional microenvironments co-assembled by glycans and other macromolecules, and design systematic profiling and intervention strategies for disease diagnosis and therapy — from glycan-editing-enhanced tumour immunity to new cell-surface markers, glycan-mediated interactions, and glycan-enabled biologics.

Tumor immunityBiomarkersGlycan engineering
Publications

The full record is on Google Scholar.

Every paper, preprint, and citation count, kept up to date.