The Influence of Sn addition on the microstructure and mechanical properties of the new β-type Ti-Mo-Nb based alloys for implant material

Keyphrases

• Argon Atmosphere 50%
• Biomaterials 50%
• Biomedical Applications 50%
• Cobalt Steel 50%
• Corrosion Resistance 50%
• Diffraction 50%
• Elastic Modulus 100%
• Electric 50%
• Equiaxed Structure 50%
• Hard Tissue 50%
• Hardness Test 50%
• High Biocompatibility 50%
• Implant Materials 100%
• Low Density 50%
• Low Young's Modulus 50%
• Mechanical Properties 100%
• Microstructure Hardness 50%
• Microstructure Properties 100%
• Nb-based Alloy 100%
• NiTiNb 100%
• Optical Microscope 50%
• Pure Ti 50%
• Pure Titanium 50%
• Scanning Electron Microscopy 50%
• Sn Addition 100%
• Sn Content 50%
• Stainless Steel Alloys 50%
• Ti-6Al-4V (Ti64) 50%
• Ti6Al4V Implants 50%
• Titanium Alloy 50%
• Tungsten Electrode 50%
• Ultrasonic Testing 50%
• Vacuum Furnace 50%
• Young's Modulus 100%

INIS

• alloys 100%
• applications 14%
• arc furnaces 14%
• argon 14%
• atmospheres 14%
• biological materials 14%
• bones 14%
• cobalt 14%
• comparative evaluations 28%
• corrosion resistance 14%
• density 14%
• elasticity 14%
• electrodes 14%
• hardness 28%
• implants 100%
• mechanical properties 100%
• microstructure 100%
• optical microscopes 14%
• pressure range giga pa 14%
• scanning electron microscopy 14%
• stainless steels 14%
• tissues 14%
• titanium 14%
• titanium alloys 14%
• tungsten 14%
• ultrasonics 14%
• x-ray diffraction 14%
• young modulus 42%

Material Science

• Alloy Steel 33%
• Biocompatibility 33%
• Biomaterial 33%
• Cobalt 33%
• Corrosion Resistance 33%
• Density 33%
• Elastic Moduli 66%
• Implant Material 100%
• Indentation Hardness Testing 33%
• Scanning Electron Microscopy 33%
• Stainless Steel 33%
• Ti-6Al-4V 33%
• Titanium 33%
• Titanium Alloy 33%
• Tungsten 33%
• Young's Modulus 100%