Aug 2026· Diabetes/Metabolism Research Reviews· Vol 42· 0 citations· 267 references
Medicine
TL;DR
Advances in islet transplantation and regenerative biomaterial engineering are highlighted as key enablers of the transition from reactive treatment to 3 PM‐guided, patient‐tailored therapy for T1D.
Abstract
Type 1 Diabetes (T1D) is an autoimmune disorder marked by the immune‐mediated destruction of pancreatic β‐cells, resulting in insulin deficiency and dysregulated glucose control. Current therapies—such as insulin replacement and artificial pancreas systems—manage symptoms but fail to restore endogenous β‐cell function or halt disease progression. Transplantation strategies, including islet allo‐ and xenotransplantation, offer potential cures but remain limited by immune rejection, donor scarcity, and the adverse effects of systemic immunosuppression. Within the framework of predictive, preventive, and personalised medicine (3 PM), T1D management requires a paradigm shift towards early detection, targeted prevention, and individualised therapy. Predictive biomarkers and molecular phenotyping can identify high‐risk individuals and forecast graft outcomes, while preventive strategies—such as localised immunomodulation, bioenergetic support, and control of systemic inflammation—improve tolerance and graft longevity. Personalised interventions, including patient‐specific biomaterials, immunoprotective encapsulation, and regulatory T cell–based or stem‐cell–derived β‐cell replacement, address immune and metabolic heterogeneity. Recent progress in biomaterials, encapsulation, and 3D bioprinting enables the practical implementation of this 3 PM approach by enhancing oxygenation, vascular integration, and specific scaffold design. Integration of AI‐driven analytics, digital health monitoring, and multi‐modal diagnostics further supports predictive control of transplant outcomes. This review highlights advances in islet transplantation and regenerative biomaterial engineering as key enablers of the transition from reactive treatment to 3 PM‐guided, patient‐tailored therapy for T1D.
Type 1 diabetes is a chronic autoimmune disorder characterized byimmune-mediated destruction of pancreatic beta cells, resulting in lifelong dependence on exogenous insulin and risk of acute and chronic metabolic complications. Despite advances in insulin formulations and glucose monitoring technologies, current therap...
Mukisa Ian Mugaiga· IDOSR Journal of Scientific...· 0 citations
No platform has yet combined durable function, immune control, scalable production and acceptable long-term safety in type 1 diabetes, and this review examines donor islets, stem-cell-derived products and islet-like organoids as parts of one treatment system.
Lan Chen, Xin-Hao Hu, Chen Zheng et al.· Frontiers in Endocrinology· 0 citations
Type 1 diabetes mellitus (T1DM) results from autoimmune destruction of pancreatic β cells and requires lifelong insulin replacement. Islet transplantation can restore endogenous insulin secretion, but donor scarcity, immune rejection, early graft loss, inadequate oxygen delivery, and fibrosis limit its application. Thi...
Wallace Lung· Journal of high school scien...· 0 citations
BACKGROUND
Stem cell-derived β-cell replacement has emerged as a promising strategy for the treatment of type 1 diabetes (T1D), potentially addressing the limitations of exogenous insulin therapy and donor-dependent islet transplantation. However, despite substantial progress in stem cell differentiation and transplant...
Mansuor A. Alanazi· Artificial Organs· 0 citations
The management of T1D will be a blend of early diagnosis, customized immunomodulation, improved sensing of glucose, and regeneration, and in the years to come, the management of T1D will be a blend of early diagnosis, customized immunomodulation, improved sensing of glucose, and regeneration.
Jasvinder Saini, Dushyant, Jagdeep Singh et al.· Current Topics in Medicinal...· 0 citations
Diabetes mellitus (DM) is a multifactorial metabolic disorder in which chronic hyperglycemia arises alongside adipose-tissue dysfunction, ectopic lipid accumulation, endothelial injury, and progressive multiorgan damage. These processes form an interconnected network, and because lowering glucose or blocking any single...