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Development of a rapid-shaping and user-friendly membrane with long-lasting space maintenance for guided bone regeneration

Yuting Wang, Xin Zhang, Shuang‐Nan Zhang, Guangmei Yang, Yuanyuan Li, Yilin Mao, Linxin Yang, Junyu Chen, Jian Wang

2024Journal of Materials Chemistry B17 citationsDOI

Abstract

-glycolic acid) film in a photo-crosslinkable hydrogel composed of polyethylene glycol diacrylate, gelatin methacryloyl, and nanosilicate (PGN). The PGN hydrogel significantly improved the mechanical strength of the PLGA film-PGN and endowed it with plasticity and adhesive properties, making it more maneuverable. The maximum bending force that the PLGA film-PGN could withstand was over 55 times higher than that of the HEAL ALL film (a commonly used commercial GBR membrane). PLGA film-PGN also promoted the proliferation and osteogenic differentiation of rBMSCs. According to a critical-size rat calvarial defect model, PLGA film-PGN maintained the space within the defect area and significantly enhanced bone formation 4 weeks after the surgery. To conclude, the study provided a novel perspective on GBR membrane design and the multifunctional PLGA film-PGN membrane demonstrated great potential for bone defect reconstruction.

Topics & Concepts

Regeneration (biology)Materials scienceBiomedical engineeringMembranePlasticityPLGAComposite materialNanotechnologyCell biologyChemistryEngineeringBiologyBiochemistryNanoparticleBone Tissue Engineering MaterialsGraphene and Nanomaterials ApplicationsHydrogels: synthesis, properties, applications
Development of a rapid-shaping and user-friendly membrane with long-lasting space maintenance for guided bone regeneration | Litcius