Additive manufacturing of fine-grained and dislocation-populated CrMnFeCoNi high entropy alloy by laser engineered net shaping

Engineering

• Additive Manufacturing 100%
• High-Entropy Alloys 100%
• Laser Engineered Net Shaping 100%
• Microstructure 100%
• Length Scale 50%
• Face-Centered Cubic 50%
• Tensiles 50%
• Recovery Rate 50%
• Ray Diffraction 50%
• Strain Hardening 50%
• Deformation Process 50%
• Columnar Grain 50%
• Disordered Phase 50%
• Phase Formation 50%
• Centered Cubic Structure 50%
• Tensile Loads 50%
• Engineering Application 50%
• Tensile Yield Strength 50%
• Dislocation Dynamics 50%
• Tensile Deformation 50%
• Solidification Simulation 50%
• Dislocation Substructure 50%

Keyphrases

• Dislocation 100%
• Additive Manufacturing 100%
• Laser Engineered Net Shaping (LENS™) 100%
• High-entropy Alloy 100%
• CrMnFeCoNi 100%
• LENSTM 83%
• Tensile Behavior 16%
• Engineering Application 16%
• Microstructure 16%
• High Performance 16%
• X Ray Diffraction 16%
• Substructure 16%
• Tensile Elongation 16%
• Annealing 16%
• Deformation Process 16%
• As-deposited 16%
• Recovery Rate 16%
• Tensile Deformation 16%
• Columnar Grain 16%
• Solidification Conditions 16%
• Phase Formation 16%
• Work Hardening Rate 16%
• Dislocation Behavior 16%
• Deformation Twinning 16%
• Microstructure Behavior 16%
• Multiple Length Scales 16%
• Face-centered Cubic Structure 16%
• Equiatomic 16%
• Dislocation Strengthening 16%
• Dislocation Recovery 16%
• Dislocation Substructure 16%
• Dynamic Dislocations 16%
• Tensile Yield Strength 16%
• Scheil's Solidification Simulation 16%

Material Science

• Three Dimensional Printing 100%
• Solidification 100%
• High Entropy Alloys 100%
• Work Hardening 33%
• Yield Stress 33%
• Tensile Loads 33%
• Dislocation Dynamics 33%
• X-Ray Diffraction 33%