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NewcelX Announce Positive Results from International Collaborative Study Exploring Advanced Biomaterial Approaches for Stem Cell-Derived Islet Delivery in Type 1 Diabetes Without Immune Suppression

ZURICH, Jan. 12, 2026 /PRNewswire/ -- NewcelX Ltd. (Nasdaq: NCEL) ("NewcelX" or the "Company"), a clinical-stage biotechnology company advancing regenerative

articleNewcelx Ltd.January 12, 20264/company/newcelx-ltd/news/newcelx-announce-positive-results-from-international-collaborative-study-exploring-advanced-biomaterial-approaches-for-stem-cell-derived-islet-delivery-in-type-1-diabetes-without-immune-suppression
NewcelX Announce Positive Results from International Collaborative Study Exploring Advanced Biomaterial Approaches for Stem Cell-Derived Islet Delivery in Type 1 Diabetes Without Immune Suppression

About this update from Newcelx Ltd.

[{"type":"text","content":"ZURICH, Jan. 12, 2026 /PRNewswire/ -- NewcelX Ltd. (Nasdaq: NCEL) (\"NewcelX\" or the \"Company\"), a clinical-stage biotechnology company advancing regenerative medicine solutions, today reported the results of an international collaborative research study investigating advanced biomaterial strategies to support the delivery and function of stem cell–derived islets for the treatment of Type 1 Diabetes.\nThe peer reviewed study, published in Diabetology, a journal dedicated to diabetes research, conducted in collaboration with research groups from the University of Technology Sydney, the University of Wisconsin–Madison, Monash University, the Queensland University of Technology, and the Australian Foundation for Diabetes Research (AFDR), examined the use of engineered scaffolds incorporating extracellular matrix (ECM) derived from a decellularized human pancreas. The work evaluated whether ECM integration could support the function of encapsulated pluripotent stem cell–derived islets within a removable delivery system. The study results demonstrated that when ECM was incorporated into the scaffold, implanted islets exhibited functional performance comparable to encapsulated islets delivered without a scaffold. These findings suggest that biomaterial design and tissue microenvironment play a critical role in supporting islet function and may enable safer, retrievable delivery configurations for future therapeutic development.The research was supported through a Type 1 Diabetes research initiative led by the Australian Foundation for Diabetes Research, which had received donor matched funding for the published study from the National Stem Cell Foundation of Australia. Moreover, it has received dedicated funding from Breakthrough T1D (formerly JDRF), the leading global type 1 diabetes research and advocacy organization, to further develop the underlying model based on the study results.\"This research contributes to our understanding of how advanced biomaterials and tissue microenvironments can support engineered islet function,\" said Prof. Michel Revel, Chief Scientific Officer of NewcelX. \"The findings are consistent with the scientific principles underlying our diabetes program, which aims to combine scalable stem cell–derived islets with strategies to enhance engraftment and retrievability intended to eliminate the need for c...

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