Topological design, permeability and mechanical behavior of additively manufactured functionally graded porous metallic biomaterials

Engineering

• Metallic Biomaterials 100%
• Defects 100%
• Design 100%
• Yield Stress 100%
• Young's Modulus 100%
• Digital Image Correlation 50%
• Porous Structure 50%
• Mechanical Properties 50%
• Low Density 50%
• Ti-6al-4v 50%
• Finite Element Simulation 50%
• Additive Manufacturing 50%
• Maximum Stress 50%
• Bone Substitutes 25%
• Porosity 25%
• Bearing Layer 25%
• Strut 25%
• Compression Load 25%
• Macroscale 25%
• Mechanisms 25%
• Diamond 25%
• Biomimetics 25%
• Element Model 25%
• Biomechanical Performance 25%
• Finite Element Modeling 25%
• Mechanical Response 25%
• Recovery 25%
• Representative Volume Element 25%
• Solid Element 25%
• Coupled Model 25%
• Selective Laser Melting 25%
• Scaffold 25%
• Microscale 25%

INIS

• design 100%
• porous materials 100%
• biological materials 100%
• permeability 100%
• topology 100%
• young modulus 21%
• defects 21%
• yields 21%
• finite element method 15%
• bones 15%
• manufacturing 10%
• mimic 10%
• units 10%
• deformation 10%
• simulation 10%
• layers 10%
• ductility 10%
• correlations 10%
• images 10%
• pressure range mega pa 10%
• density 10%
• mechanical properties 10%
• experimental data 10%
• additives 10%
• implants 5%
• powders 5%
• lasers 5%
• applications 5%
• melting 5%
• junctions 5%
• fabrication 5%
• diamonds 5%
• biomimetics 5%
• interfaces 5%
• variations 5%
• comparative evaluations 5%
• recovery 5%
• volume 5%
• pressure range giga pa 5%
• performance 5%
• solids 5%
• porosity 5%

Material Science

• Mechanical Property 100%
• Permeability 100%
• Biomaterial 100%
• Metallic Biomaterial 100%
• Yield Stress 22%
• Finite Element Method 11%
• Three Dimensional Printing 11%
• Density 11%
• Ti-6Al-4V 11%
• Ductility 11%
• Bone 11%
• Porosity 5%
• Selective Laser Melting 5%
• Powder 5%