Microstructure and Mechanical Properties of 316L Stainless Steel Fabricated Using Selective Laser Melting

Engineering & Materials Science

• Selective laser melting 100%
• Austenitic stainless steel 75%
• Microstructure 53%
• Mechanical properties 51%
• Tensile strength 42%
• Lasers 40%
• Corrosion 39%
• Alloying elements 30%
• Precipitates 27%
• Thermal gradients 27%
• Grain boundaries 26%
• Microhardness 26%
• Solidification 25%
• Elongation 24%
• Corrosion resistance 24%
• Powders 21%
• Temperature 21%
• Scanning electron microscopy 20%
• Hardness 20%
• Scanning 20%
• Cooling 18%
• Cracks 17%

Physics & Astronomy

• stainless steels 70%
• melting 61%
• mechanical properties 53%
• microstructure 46%
• lasers 34%
• tensile strength 21%
• corrosion 20%
• substructures 11%
• tensile tests 11%
• corrosion resistance 11%
• homogeneity 10%
• microhardness 10%
• elongation 10%
• solidification 10%
• alloying 10%
• precipitates 9%
• hardness 8%
• cracks 8%
• grain boundaries 8%
• cooling 7%
• gradients 7%
• scanning electron microscopy 7%
• scanning 7%
• room temperature 6%
• temperature 3%

Chemistry

• Melting 68%
• Microstructure 53%
• Tensile Strength 33%
• Corrosion 28%
• Solidification 21%
• Microhardness 21%
• Grain Boundary 20%
• Alloying 20%
• Homogeneity 17%
• Corrosion Resistance 17%
• Cooling 17%
• Alloy 13%
• Strength 12%
• Diffusion 12%
• Scanning Electron Microscopy 11%
• Environment 11%
• Ambient Reaction Temperature 11%