Materials · 2019 · 53 citations · 24 references
EngineeringBioengineeringBiomedical EngineeringBiocompatibilityBiomaterialsTissue EngineeringBiomaterials For Tissue EngineeringCell-scaffold InteractionsNanostructured BiomaterialsRegenerative ScaffoldsScaffold DesignTissue Engineering ScaffoldsComposite ScaffoldsFlexibilityFoaming ProcessesFoamsGraphene OxidePolycaprolactonePolycaprolactone ScaffoldsReduced Graphene Oxide
Developing bone scaffolds can greatly improve the patient's quality of life by accelerating the rehabilitation process. In this paper, we studied the process of composite polycaprolactone supercritical foaming for tissue engineering. The influence of graphene oxide and reduced graphene oxide on the foaming parameters was studied. The structural and mechanical properties were studied. The scaffolds demonstrated mechanical flexibility and endurance. The co-culturing and live/dead tests demonstrated that the obtained scaffolds are biocompatible. Different composite scaffolds induced various surface cell behaviors. The experimental data demonstrate that composite foams are promising candidates for in vivo medical trials.
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Blue Photoluminescence from Chemically Derived Graphene Oxide
Goki Eda, Cecilia Mattevi, Hisato Yamaguchi et al. · Advanced Materials · 2009 · 2K citations
Biomedical Applications of Graphene and Graphene Oxide
Chul Chung, Young‐Kwan Kim, Dolly Shin et al. · Accounts of Chemical Research · 2013 · 1.7K citations
Natural Sciences, Materials Engineering, Materials Science +14
Tissue-engineered bone regeneration
Hervé Petite, Véronique Viateau, Wassila Bensaïd et al. · Nature Biotechnology · 2000 · 1.5K citations