Japanese Dental Science Review · 2010 · 36 citations · 43 references
EngineeringBioengineeringBiomedical EngineeringBiomaterialsBone GraftingTissue EngineeringBone Graft SubstitutesBone SubstitutesBone Tissue EngineeringScaffold FabricationSynthetic Bone SubstitutesTissue Engineering ScaffoldsBeta-tricalcium PhosphateBiodegradable Bone SubstitutesBone Graft ScaffoldsComposite Bone ScaffoldsComposite ScaffoldsHydroxyapatite Bone SubstitutesOsteoconductive MaterialsScaffold-based Alveolar Bone Tissue Engineering
For many years, bone graft substitutes have been used to reconstruct bone defects in orthopedic and dental fields. However, synthetic bone substitutes such as hydroxyapatite or β-tricalcium phosphate have no osteoinductive or osteogenic abilities. Bone tissue engineering has also been promoted as an alternative approach to regenerating bone tissue. To succeed in bone tissue engineering, osteoconductive scaffolding biomaterials should provide a suitable environment for osteogenic cells and provide local controlled release of osteogenic growth factors. In addition, the scaffold for the bone graft substitute should biodegrade to replace the newly formed bone. Recent advances in bone tissue engineering have allowed the creation of composite scaffolds with tailored functional properties. This review focuses on composite scaffolds that consist of synthetic ceramics and natural polymers as drug delivery carriers for alveolar bone tissue engineering.
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Complications of Iliac Crest Bone Graft Harvesting
Edward D. Arrington, William J. Smith, Henry G. Chambers et al. · Clinical Orthopaedics and Related Research · 1996 · 1.6K citations
Protein release from gelatin matrices
Yasuhiko Tabata · Advanced Drug Delivery Reviews · 1998 · 835 citations