Development of Cu-based shape memory alloy through selective laser melting from elemental powder mixture: Processing and characterization

Keyphrases

• Ball Milling 20%
• Cu-based Shape Memory Alloys 100%
• Cu-based SMA 40%
• Defect Distribution 20%
• Dense Samples 20%
• Dense Structure 20%
• Density Defects 20%
• Differential Scanning Calorimetry 20%
• Elemental Powder 60%
• Elemental Powder Mixture 100%
• Feedstock Materials 20%
• Grain Morphology 20%
• Grain Size 40%
• High Density 20%
• High Relative Density 20%
• Laser Power 100%
• Laser Scanning 20%
• Maximum Hardness 20%
• Mechanical Properties 20%
• Mixture Characterization 100%
• Mixture Processing 100%
• Porosity 20%
• Power Increase 20%
• Process Optimization 20%
• Processing Techniques 20%
• Property Size 20%
• Scanning Electron Microscopy 20%
• Scanning Speed 20%
• Selective Laser Melting 100%
• Tensile Strength 20%
• Tensile Test 20%
• Transformation Temperature 20%
• Uniform Sampling 20%
• Vickers Hardness Test 20%
• X Ray Diffraction 20%

Engineering

• Ball Milling 20%
• Defect Density 20%
• Feedstock Material 20%
• Laser Power 100%
• Microhardness 20%
• Porosity 20%
• Powder Mixture 100%
• Processing Technique 20%
• Ray Diffraction 20%
• Scan Speed 20%
• Selective Laser Melting 100%
• Shape Memory Alloy 100%
• Tensile Test 20%
• Ultimate Tensile Strength 20%

Material Science

• Defect Density 33%
• Density 66%
• Differential Scanning Calorimetry 33%
• Feedstock 33%
• Grain Size 66%
• Microhardness 33%
• Scanning Electron Microscopy 33%
• Selective Laser Melting 100%
• Shape Memory Effect 100%
• Ultimate Tensile Strength 33%
• X-Ray Diffraction 33%