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Abstract. Hydrogels have emerged as indispensable biomaterials in tissue engineering and organoid technology due to their structural similarity to the native extracellular matrix (ECM), tunable mechanical properties, and high-water content. Recent advances demonstrate that matrix stiffness, degradability, and biochemical functionalization critically regulate organoid formation, patterning, and maturation, particularly in complex tissues such as the brain. Defined synthetic hydrogels offer greater reproducibility and controllability than animal-derived matrices, enabling precise modulation of stem cell niches and tissue morphogenesis. This study reviews the role of hydrogel physicochemical properties in guiding cellular behavior and presents an experimental framework for synthesizing and characterizing tailored hydrogel systems. Our findings indicate that mechanical stiffness and degradation kinetics significantly influence cell viability and differentiation pathways, underscoring the importance of precision biomaterial engineering. Furthermore, the integration of advanced bio fabrication technologies, including 3D bioprinting and microfluidics, expands the potential of hydrogels to generate vascularized, clinically translatable tissue constructs. Despite existing challenges related to bionic formulation, reproducibility, and in vivo integration, next-generation smart and hybrid hydrogels represent promising platforms for regenerative medicine applications.
Key words. hydrogels, models, diabetic, processing, oleogels, bigels,natural polimers, synthetic polimers
DOI: 10.66640/UJP-2026-5-00006
Citation: Mohira B. Nuraddinova, Fayzulla N. Nurkulov, ENGINEERING TUNABLE HYDROGEL MICROENVIRONMENTS FOR ENHANCED ORGANOID DEVELOPMENT AND TISSUE REGENERATION. Uzbekistan Journal of Polymers, Vol. 5(1) 2026: pp.86-91. DOI: 10.66640/UJP-2026-5-00006
