The human pancreas often contains lesions that are common in the population and that, although they can become malignant, usually do not. To understand when this occurs and how these pancreatic cancer precursor lesions, known as pancreatic intraepithelial neoplasias (PanIN), evolve, scientists at the University of Michigan analyzed their gene expression patterns and their cellular microenvironment.
With a historic WHO resolution adopted this week giving countries, for the first time, a mandate to address liver disease affecting 1.5 billion people worldwide, this momentum is strongly reflected at the ongoing European Association for the Study of the Liver 2026 congress in Barcelona. The mandate positions liver disease alongside cancer, cardiovascular disease and diabetes as a core global health priority.
Epirium Bio Inc. has developed a series of small-molecule 15-PGDH inhibitors, the phase II-ready MF-300 and preclinical candidate MF-1305, as potential therapeutics for inflammatory bowel disease (IBD).
At the recently concluded Digestive Disease Week, researchers from Kymera Therapeutics Inc. presented preclinical efficacy data on KT-579, a selective oral IRF5 degrader, in models of IBD.
Microbiome specialist Enterobiotix Ltd. has raised £19 million (US$25.7 million) to fund phase IIb development of its lead program EBX-102-02 in the treatment of irritable bowel syndrome with constipation (IBS-C).
The combination of impaired epithelial barrier function, mucosal inflammation and elevated oxidative stress is determinant for the pathogenesis of ulcerative colitis (UC). NF-E2-related factor 2 (NRF2) is an important transcription factor for modulating antioxidant defenses, inhibiting inflammatory pathways and regenerating the epithelial barrier. Montai Therapeutics Inc. has developed a potent and selective NRF2 agonist compound, MTAI-1025, for the management of UC using its proprietary CONECTA platform.
A major challenge in tissue engineering is not only achieving the correct cellular organization of an engineered tissue, but also expanding it to a clinically useful size after implantation. Researchers from the Wyss Institute at Harvard University have developed a synthetic biology platform that genetically programs tissues to grow large organ implants on demand. Building on a 2017 study suggesting engineered liver tissues could respond to regenerative signals released after injury, the researchers set out to identify and harness those cues.
“If we could figure out what those signals were, we could synthetically drive these factors locally in an implant to control its growth ourselves,” first author Amy Stoddard told BioWorld. Stoddard is a postdoctoral researcher at the Wyss Institute.
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