Characterization of the Effects of Internal Pores on Tensile Properties of Additively Manufactured Austenitic Stainless Steel 316L

Keyphrases

• Additive Manufacturing 100%
• Tensile Properties 100%
• Internal Pores 100%
• Mechanical Properties 50%
• Pore Diameter 50%
• Cross-sectional Sample 50%
• Uniaxial Tension 50%
• Penny-shaped 50%
• Non-destructive 25%
• Pore Size 25%
• Optical Microscopy 25%
• Well-defined 25%
• Cylindrical Sample 25%
• Fully Dense 25%
• Size Dependence 25%
• Pore Morphology 25%
• Defect Size 25%
• Tensile Behavior 25%
• Ultimate Tensile Strength 25%
• Varying Diameter 25%
• Elongation to Failure 25%
• SS316L 25%
• X-ray Radiography 25%
• Tensile Mechanical Properties 25%
• Tension Load 25%
• Dense Samples 25%
• Defect Tolerant 25%
• Lack-of-fusion 25%
• Laser Powder Bed Fusion Additive Manufacturing 25%

Engineering

• Additive Manufacturing 100%
• Austenitic Stainless Steel 100%
• Tensile Property 100%
• Pore Diameter 50%
• Tensiles 50%
• Stainless Steel 25%
• Tensile Loads 25%
• X-Ray Radiography 25%
• Ultimate Tensile Strength 25%
• Defect Size 25%
• Dependent Mechanical Property 25%
• Archimedes 25%
• Powder Bed Fusion 25%

Material Science

• Tensile Property 100%
• Three Dimensional Printing 100%
• Austenitic Stainless Steel 100%
• Stainless Steel 25%
• Pore Size 25%
• Ultimate Tensile Strength 25%
• Tensile Loads 25%
• Radiographic Testing 25%
• X-Ray Computed Tomography 25%
• Laser Powder Bed Fusion 25%