Evaluation of the osteoinductive potential of a bio-inspired scaffold mimicking the osteogenic niche for bone augmentation

INIS

• evaluation 100%
• humans 100%
• bones 100%
• augmentation 100%
• genes 40%
• mimic 40%
• regeneration 40%
• trabecular bone 40%
• scanning electron microscopy 20%
• levels 20%
• in vivo 20%
• rabbits 20%
• mechanical properties 20%
• patients 20%
• in vitro 20%
• biological materials 20%
• nanostructures 20%
• thermal gravimetric analysis 20%
• stem cells 20%
• comparative evaluations 20%
• volume 20%
• applications 20%
• demand 20%
• maturation 20%
• host 20%
• defects 20%
• utilities 20%
• collagen 20%
• injuries 20%
• adhesion 20%
• healing 20%
• bone marrow 20%
• proliferation 20%
• microstructure 20%
• congenital diseases 20%
• mineralization 20%
• doped materials 20%
• apatites 20%
• xrd 20%
• synthetic materials 20%
• magnesium 20%
• afm 20%

Medicine and Dentistry

• Evaluation Study 100%
• Cells 100%
• Bone Development 66%
• Cancellous Bone 66%
• Bone Regeneration 66%
• Differentiation 66%
• Aptitude 66%
• Gene Expression 33%
• Scanning Electron Microscopy 33%
• In Vitro 33%
• Ossification 33%
• Magnesium 33%
• Mineralization 33%
• Injury 33%
• Biocompatible Material 33%
• Hydroxylapatite 33%
• Congenital Disorder 33%
• Collagen Type 1 33%
• Cortical Bone 33%
• Host 33%
• Gene 33%
• Bone Marrow Derived Mesenchymal Stem Cell 33%
• Patient 33%
• Maturation 33%
• Healing 33%

Biochemistry, Genetics and Molecular Biology

• Electric Potential 100%
• Bone 100%
• Bone Development 40%
• Bone Regeneration 40%
• Aptitude 40%
• Adhesion 20%
• Gene Expression 20%
• Nested Gene 20%
• Leporidae 20%
• Stem Cell 20%
• Host 20%
• Magnesium 20%
• Type I Collagen 20%
• Genetic Code 20%
• Thermogravimetric Analysis 20%
• Mineralization 20%
• Ossification 20%
• Scanning Electron Microscopy 20%
• Volume 20%
• Time 20%
• Maturation 20%
• Hydroxylapatite 20%
• X-Ray Diffraction 20%