Aug 2026· Macromolecular Bioscience· Vol 26· 0 citations· 123 references
Medicine
TL;DR
This review, based on an analysis of domestic and international literature, summarizes the latest research progress on natural polysaccharide‐based photocrosslinked hydrogels in regenerative medicine and their emerging therapeutic applications in tissue regeneration, including skin, bone, and nerve repair.
Abstract
Regenerative medicine, an emerging multidisciplinary field, aims to repair or replace damaged or dysfunctional tissues and organs. Natural polysaccharide hydrogels, characterized by a three‐dimensional porous structure analogous to human tissues, have been extensively utilized in biomedical applications. Hydrogels fabricated from natural polysaccharides via photopolymerization enable the formation of scaffolds with precise three‐dimensional architectures. Exhibiting excellent biocompatibility, controlled degradability, and tunable mechanical and physicochemical properties, these photopolymerized polysaccharide hydrogels can construct tissue‐adaptable microenvironments matching the physiological requirements of specific tissues to support cellular activities and tissue regeneration. Consequently, their applications in tissue engineering and controlled drug release have garnered significant attention, demonstrating considerable potential across various contexts. This review, based on an analysis of domestic and international literature, summarizes the latest research progress on natural polysaccharide‐based photocrosslinked hydrogels in regenerative medicine. Emphasis is placed on the specific properties of these hydrogels and their emerging therapeutic applications in tissue regeneration, including skin, bone, and nerve repair.
ABSTRACT Multifunctional hydrogels have emerged as advanced biomaterial platforms capable of integrating structural support, therapeutic delivery, and biological regulation to address the complex requirements of regenerative medicine. Their unique ability to mimic native extracellular matrix environments through tunabl...
Lin-Yang Song, Epiphane K. Silli, Ya-Zhen Xu et al.· MedComm· 0 citations
This review provides a comprehensive analysis of the fundamental mechanisms of thermoresponsive behaviour, major polymer systems and the most significant applications in tissue engineering and highlights future research directions needed to fully exploit the potential of thermoresponsive hydrogels in regenerative medic...
Oral regenerative medicine seeks to repair or regenerate the pulp-dentin complex, periodontal tissues, jawbone, and oral mucosa. Nevertheless, this field confronts considerable challenges, including the intricate oral microenvironment, the body’s limited intrinsic regenerative capacity, and the requirement for coordina...
Xin-Yi Chen, D. Qiao, Ya-Nan Wei et al.· Regenerative Medicine and De...· 0 citations
Hydrogels represent a highly adaptable biomaterial platform for a broad range of biomedical uses, largely because they can replicate the extracellular matrix while retaining substantial amounts of aqueous fluid. Among the polymers employed for hydrogel fabrication, naturally derived macromolecules are particularly appe...
Yang Fu, Yuan-Xin Ge, Shi-Xiong Yi et al.· Discover Nano· 0 citations
It is suggested that the interdisciplinary convergence of materials science, bioengineering, and regulatory science is necessary to tackle challenges and make injectable hydrogels a standard-of-care regenerative therapeutic.
Elnaz Abedini, Daver Ali· Exploration of BioMat-X· 0 citations
Abstract
Regenerative medicine is an inter-disciplinary scientific field that combines biomaterials science, tissue engineering, biotechnology, stem cell biology, and nanotechnology to promote repair and regeneration of injured tissues. Within the broad class of biomaterials being explored for their regenerative proper...
Mays Sabah Mahdi· Advanced Journal of Scientif...· 0 citations
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