Bioceramics Development and Applications/Bioceramics Development and Applications · 2013 · 17 citations · 5 references
EngineeringBiomedical EngineeringMaterials ScienceBiocompatibilityBiomaterialsTissue EngineeringBioceramicsBone Tissue EngineeringRegenerative ScaffoldsScaffold DesignScaffold FabricationTissue Engineering Scaffolds3D-printed ScaffoldsBiodegradable Bone ScaffoldsBiodegradable ScaffoldsBone Mechanical PropertiesCompressive StrengthHydroxyapatite ScaffoldsPolymeric ScaffoldsRegenerative Medicine Materials
Tailor made bioceramic scaffolds in combination with the corresponding surface chemistry and biology is of great importance for a successful implantation and rapid osseo-integration. The present study investigates the fabrication of Hydroxyapatite (HA) scaffolds with defined macro porosity by means of powder based 3D-printing. In order to mime natural bone with its elastic collagen structure, the 3D-printed ceramic structures were post-treated by polymeric infiltration. Compressive Strength analysis (CS) confirmed the positive impact of an elastomeric phase on mechanical properties. 3D-printed HA scaffolds in combination with polymer result in biodegradable scaffolds with promising mechanical properties for potential use in regenerative medicine.
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Nilza Alzira Batista, Ana Amélia Rodrigues, Vanessa Petrilli Bavaresco et al. · International Journal of Biomaterials · 2012 · 19 citations · Full text