GastroenterologyMolecular BiologyPeer-reviewed journal article
IBDome: An integrated molecular, histopathological, and clinical atlas of inflammatory bowel diseases
Christina PlattneriD, Gregor SturmiD, Anja Andrea KühliD, Raja Narayana AtreyaiD, Sandro CarolloiD, Dietmar RiederiD, Raphael GronaueriD, Michael Günther, Steffen OrmannsiD, Claudia ManzliD, Stefan WirtziD, Asier Rabasco MeneghettiiD, Ahmed Nabil HegazyiD, Jay V. PatankariD, Zunamys Itzell CarreroiD, Felix Grabherr, Moritz Meyer, Imke AtreyaiD, Petra BächeriD, Christoph BeckeriD, Christian BojarskiiD, Nathalie Britzen‐LaurentiD, Caroline VoskensiD, Hyun-Dong Chang, Andreas DiefenbachiD, , Jakob Nikolas KatheriD
Abstract
Multi-omic and multimodal datasets with detailed clinical annotations offer significant potential to advance our understanding of inflammatory bowel diseases (IBD), refine diagnostics, and enable personalized therapeutic strategies. In this multi-cohort study, we performed an extensive multi-omic and multimodal analysis of 1,002 clinically annotated patients with IBD and non-IBD controls, incorporating whole-exome and RNA sequencing of normal and inflamed gut tissues, serum proteomics, and histopathological assessments from images of H&E-stained tissue sections. Transcriptomic profiles of normal and inflamed tissues revealed distinct site-specific inflammatory signatures in Crohns disease (CD) and ulcerative colitis (UC). Leveraging serum proteomics, we developed an inflammatory protein severity signature that reflects underlying intestinal molecular inflammation. Furthermore, foundation model-based deep learning accurately predicted histologic disease activity scores from images of H&E-stained intestinal tissue sections, offering a robust tool for clinical evaluation. Our integrative analysis highlights the potential of combining multi-omics and advanced computational approaches to improve our understanding and management of IBD.
- organism: human
- assay: bulk RNA-seq
- assay: proteomics
- assay: spatial transcriptomics
- research focus: cell type annotation
- research focus: differential expression
- research focus: gene regulatory network inference
- research focus: cell-cell communication
- approach: deep learning
- approach: statistical model
- Citations
- 7
- FWCI
- 4.13
- Field percentile
- top 6%
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