Multiaxial plasticity and fracture behavior of stainless steel 316L by laser powder bed fusion: Experiments and computational modeling

Keyphrases

• Computational Modeling 100%
• Experimental Modeling 100%
• Fracture Behavior 100%
• Fusion Experiments 100%
• Laser Powder Bed Fusion (L-PBF) 100%
• Plastic Behavior 100%
• Multiaxial Plasticity 100%
• Stainless Steel 316L (SS316L) 100%
• Stress State 66%
• Plasticity Model 66%
• Fracture Model 66%
• Anisotropic Plasticity 66%
• Sample Orientation 33%
• Cellular Structure 33%
• Multi-axial 33%
• Loading State 33%
• Submicron 33%
• State Dependence 33%
• Uniaxial Tension 33%
• Computational Approach 33%
• Large Deformation 33%
• Tension-tension 33%
• Specimen Geometry 33%
• Dislocation Density 33%
• Failure Behavior 33%
• Dependent Failure 33%
• Shear Tension 33%
• Tension Load 33%
• Shear Band Formation 33%
• Plane Strain Tension 33%
• Anisotropic Fracture 33%
• Modified Mohr-Coulomb 33%
• State Plane 33%
• Shear Damage 33%
• Damage Criteria 33%
• Additively Manufactured 33%
• Ductile Fracture Model 33%
• Ductile Fracture Behavior 33%

Engineering

• Stainless Steel 100%
• Anisotropic 100%
• Fracture Behavior 100%
• Computer Simulation 100%
• Laser Powder Bed Fusion 100%
• Stress State 40%
• Ductile Fracture 40%
• Loading State 20%
• Plane Strain 20%
• Large Deformation 20%
• Specimen Geometry 20%
• Failure Behavior 20%
• Dislocation Density 20%
• Plasticity Model 20%
• Shear Damage 20%

Material Science

• Stainless Steel 100%
• Fracture Behavior 100%
• Laser Powder Bed Fusion 100%
• Ductile Fracture 66%
• Density 33%
• Shear Band 33%
• Large Deformation 33%
• Cellular Structure 33%