High Wear Resistance and Mechanical Performance of NiAl Bronze Developed by Electron Beam Powder Bed Fusion

Keyphrases

• Additive Manufacturing 33%
• Bronze Alloy 33%
• Copper(II) Oxide 33%
• Electron Beam Powder Bed Fusion (EB-PBF) 100%
• External Force 33%
• Force Direction 33%
• Friction 33%
• Fusion Technique 33%
• Grain Refinement 33%
• High Temperature Wear Resistance 100%
• Integrated Effect 33%
• Internal Stress Field 33%
• Martensitic Transformation 33%
• Mechanical Performance 100%
• Mechanical Strength 33%
• Modulus Mismatch 33%
• Ni-Al Bronze 100%
• Precipitate Distribution 33%
• Shear Force 33%
• Stacking Faults 33%
• Stress Concentration 33%
• Transfer Layer 33%
• Uniformly Distributed 66%
• Wear Resistance 66%
• Wear Resistance Performance 100%
• Work Hardening Rate 33%

Engineering

• Fusion Technique 20%
• Internal Stress 20%
• Mechanical Performance 100%
• Powder Bed Fusion 100%
• Shear Force 20%
• Simulation Result 20%
• Strain Hardening 20%
• Stress Concentration 20%
• Stress Field 20%
• Wear Resistance 100%

Material Science

• Crystal Defect 20%
• Electron Beam Powder Bed Fusion 100%
• Grain Refinement 20%
• Stress Concentration 20%
• Stress Field 20%
• Wear Resistance 100%
• Work Hardening 20%