Intestinal Fibrosis
Intestinal Fibrosis Model Using Intestinal Organoids
A pathological intestinal fibrosis model characterized by fibroblast activation and excessive extracellular matrix accumulation, resulting in tissue stiffening and structural deformation with activation of fibrosis-related signaling pathways.
This platform enables human-based in vitro evaluation of antifibrotic candidate compounds.
Challenges
Intestinal fibrosis is a major complication of chronic inflammatory bowel diseases, particularly Crohn’s disease. Progressive fibroblast activation and excessive extracellular matrix (ECM) deposition lead to tissue stiffening, luminal narrowing, and ultimately stricture formation.
Despite advances in anti-inflammatory biologics, effective antifibrotic therapies remain an unmet clinical need, partly due to the lack of predictive human-relevant preclinical models.Discuss Your Intestinal Fibrosis Research
Our scientists will help design a human-relevant disease modeling study.
Intestinal Fibrosis Model
Our human intestinal organoid–based fibrosis model recapitulates key pathological hallmarks of intestinal fibrogenesis in vitro:
- Sustained fibroblast activation and myofibroblast differentiation
- Excessive collagen and ECM protein deposition
- Measurable tissue stiffening and architectural distortion
- Activation of canonical fibrosis signaling pathways (e.g., TGF-β–associated cascades)
Related Solutions
Key Readouts
The model supports multi-layered characterization:
- Immunofluorescence quantification of α-SMA and collagen I/III
- Transcriptomic profiling of fibrosis-related genes
- ECM remodeling and matrix composition analysis
- Functional assessment of tissue stiffness
- Drug-response profiling of antifibrotic candidates
Discuss Your Intestinal Fibrosis Research
Our scientists will help design a human-relevant disease modeling study.
Impact
- Human-relevant stress biology Captures human-specific stress responses in hair follicles that are not reproducible in animal models.
- Mechanistic insight into hair greying Enables direct investigation of how stress pathways drive melanocyte loss and reduced melanin production.
- Translational testing platform Supports evaluation of compounds targeting hair pigmentation, follicle health, and stress-related pathways.
- Visible, quantifiable readouts Links molecular and cellular changes to measurable gray/white hair phenotypes for robust data interpretation.
Your CRO Partner for Human-Relevant Organoid Research & Drug Discovery
Human-relevant disease modeling services by Lambda Biologics
