Organoids are three-dimensional culture systems that self-organize and partially recapitulate the architecture, cellular composition, and functional properties of native tissues. In pediatric congenital hepatobiliary diseases, persistent cholestasis, bile duct maldevelopment, epithelial injury, and progressive fibrosis often lead to cirrhosis, liver failure, or the necessity for liver transplantation. Compared with conventional two-dimensional cell culture and animal models, hepatobiliary organoids provide patient-derived, human-relevant platforms for modeling disease mechanisms, evaluating therapeutic responses, and exploring regenerative strategies. Unlike previous reviews that mainly discuss general organoid culture systems or broad liver disease modeling, this review is organized around clinically oriented translational endpoints, including mechanistic target discovery, prognostic stratification, therapeutic validation, and regenerative reconstruction. We further discuss current barriers to clinical translation, including reproducibility, scalability, vascularization, immune integration, manufacturing standardization, and patient-specific genetic, environmental, and dietary modifiers. By integrating disease-specific mechanisms with translational applications, this review provides a framework for understanding how organoid-based platforms may contribute to future diagnosis, risk assessment, therapeutic decision-making, and regenerative medicine in pediatric congenital hepatobiliary disorders.
Zhang et al. (Fri,) studied this question.