We integrate single-cell and spatial omics with patient-derived human models to uncover how mucosal tissues are organized, disrupted in disease, and restored.
Our research follows a continuous framework that transforms observations from human tissues into mechanistic insights and translational opportunities through cellular atlases, systems biology and atlas-guided human experimental models.
Selected studies highlighting our contributions to international collaborative efforts.
A coordinated framework for building a comprehensive, spatially resolved atlas of the human gastrointestinal tract.
Nature Reviews Gastroenterology Hepatology (2023)
A spatial transcriptomics workflow enabling robust transcriptomic profiling of degraded and challenging tissue samples.
Nature Communications (2023)
Single-cell and spatial transcriptomics define region-specific epithelial programs and reveal how they are remodeled in GI disease.
Preprint – ResearchSquare (2025)
Selected studies highlighting research developed within the Laboratory of Mucosal Biology.
Single-cell and spatial transcriptomics define region-specific epithelial programs and reveal how they are remodeled in GI disease.
Preprint – ResearchSquare (2025)
Hydrogen sulfide restores cytokine-induced epithelial barrier dysfunction by enhancing mitochondrial oxidative phosphorylation.
Scientific Reports (2026)
Cirrhosis disrupts the intestinal immune barrier through loss of CCR9⁺ intraepithelial lymphocyte compartmentalization.
bioRxiv (2026)
A snapshot of the people, platforms and human data that power our research.
Established
Research Funding
Single Cells Mapped
Organoid Lines
Collaborators
Our research integrates human cellular atlases, patient-derived models and systems biology to uncover the mechanisms that govern mucosal health and disease.
Building comprehensive cellular reference maps of human tissues across health and disease.
Developing patient-derived human organoid models guided by cellular atlases to investigate tissue biology and disease.
Deciphering how epithelial, immune and microbial interactions shape tissue homeostasis and disease.
Our team combines expertise in experimental biology, single-cell and spatial omics, computational biology, and human organoid systems to advance our understanding of human mucosal biology.
Principal Investigator
Building human cellular atlases that guide the next generation of human experimental models.
We build human cellular atlases and use them to develop atlas-guided human experimental models that uncover the mechanisms governing mucosal health and disease across the gut–liver axis.
PhD Candidate
Developing and applying patient-derived organoid models to investigate epithelial biology, tissue homeostasis and diseases of the gut–liver axis.
PhD Candidate
Investigating the role of long non-coding RNAs in cellular metabolism using advanced molecular biology approaches.
PhD Candidate
Novel bile acid immunoregulatory networks in chronic inflammatory disease
PhD Candidate (co-supervision)
Developing advanced multicellular models to understand tissue regeneration in health and its impairment in disease.
PhD Candidate (International Scholar)
Using computational biology to understand colorectal cancer progression and liver metastasis.
Master’s student
Developing intestinal organoid models that preserve regional identity to study tissue function in health and disease.