Immune-stromal crosstalk in inflammation and fibrosis: Exploiting the spatiotemporal dynamics of the OSM-OSMR axis in inflammatory bowel disease to develop novel antifibrotic therapies
This project aims to investigate the role of oncostatin-M in immune-stromal interactions driving intestinal fibrosis in IBD, with the goal of identifying biomarkers and potential therapies.
Projectdetails
Introduction
Intestinal fibrosis is a common and serious complication of inflammatory bowel disease (IBD). While intestinal inflammation can be treated pharmacologically based on our current understanding of the underlying pathogenesis, little is known about the mechanisms driving fibrogenesis. Thus, no approved therapies exist for intestinal fibrosis.
Immune-Stromal Cell Axis
While stromal cells lie at the heart of fibrogenesis, our knowledge of how immune-derived signals instruct aberrant tissue repair and fibrosis is limited. We recently highlighted that the immune-stromal cell axis is a crucial component of IBD pathogenesis.
Role of Oncostatin-M
Our research discovered that the IL-6 family cytokine oncostatin-M (OSM) plays a central role in immune-stromal crosstalk in human IBD and drives pro-inflammatory responses in patients with refractory disease. Genetic deletion of OSM significantly reduced acute intestinal inflammation.
Findings on Intestinal Remodeling
Furthermore, our current findings suggest that OSM is required for intestinal remodeling and the regulation of collagen homeostasis by controlling immune cell recruitment. Thus, the OSM-OSMR axis serves as a rheostat for tissue inflammation and repair.
Research Objectives
We will investigate how OSM modulates intestinal fibrosis and identify upstream and downstream signaling events controlling intestinal fibrosis.
Methodology
I will use:
- Newly generated reporter and conditional knock-out mice
- Contemporary mouse models of intestinal inflammation and fibrosis
- Primary human tissue samples from carefully clinically annotated IBD patients with intestinal fibrosis
- Cutting-edge technologies including single-cell sequencing and imaging mass cytometry
These methods will help dissect the crosstalk between the immune system and stromal cells driving intestinal fibrosis.
Expected Outcomes
This project will deepen our understanding of the intestinal aberrant tissue repair mechanisms acting in IBD and other fibrotic diseases. It will also define novel biomarkers to identify patients at risk of fibrosis and provide the means to prevent and treat fibrotic disease.
Financiële details & Tijdlijn
Financiële details
Subsidiebedrag | € 1.499.816 |
Totale projectbegroting | € 1.499.816 |
Tijdlijn
Startdatum | 1-9-2023 |
Einddatum | 31-8-2028 |
Subsidiejaar | 2023 |
Partners & Locaties
Projectpartners
- CHARITE - UNIVERSITAETSMEDIZIN BERLINpenvoerder
Land(en)
Vergelijkbare projecten binnen European Research Council
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Contextual specification of fibroblast-driven causalities in chronic intestinal inflammation and fibrosis
This project aims to elucidate the role of specific fibroblast subsets in inflammatory bowel disease using single-cell analysis to inform therapeutic strategies and enhance understanding of disease mechanisms.
Network Synergies in Tissue Homeostasis and Stromal Prevention of Inflammatory Disease.
This project aims to uncover the mechanisms of tissue homeostasis and stromal biology to prevent inflammation onset, using advanced bioimaging and computational techniques for therapeutic advancements.
Imidazole propionate and fibrosis in cardiometabolic diseases
IMPACT aims to investigate the role of the microbial metabolite imidazole propionate in promoting fibrosis in heart and liver diseases, potentially leading to new therapeutic strategies.
Targeted Re-engineering of the Tumor Matrix to Advance Immunotherapy
This project aims to disrupt the pro-fibrotic loop in pancreatic cancer using engineered biomimetics to enhance immune therapy efficacy by normalizing the tumor microenvironment.
Harnessing Stromal Fibroblasts to Reduce Resistance and Improve Colon Cancer Therapeutics
This project aims to understand how cancer-associated fibroblasts influence drug resistance in colorectal cancer, using mechanotransduction pathways to develop biomarkers and improve therapeutic efficacy.