Strong Impact of Minor Elements on the Microstructural Evolution of an Additively Manufactured Inconel 625 Alloy

Keyphrases

• Strong Impact 100%
• Additive Manufacturing 100%
• Microstructural Evolution 100%
• Inconel 625 Alloy 100%
• Si-N 50%
• N-rich 50%
• Inconel 625 (IN625) 50%
• Thermodynamic Calculation 25%
• High Concentration 25%
• Grain Boundary 25%
• Solute 25%
• Processing Conditions 25%
• Powder Bed 25%
• Electron Microscopy Techniques 25%
• Interdendritic Region 25%
• Metallic Materials 25%
• Precipitated Phase 25%
• Columnar 25%
• Solid Solution Strengthening 25%
• Globular 25%
• Cell Wall 25%
• Dislocation Core 25%
• Service Conditions 25%
• Phase Lead 25%
• Single-phase Solid Solution 25%
• Improved Mechanical Properties 25%
• Precipitate Formation 25%
• Precipitation Pathway 25%
• Subgrain 25%
• As-built 25%
• Laser Powder Bed Fusion (L-PBF) 25%
• Stress Relief Heat Treatment 25%
• Dislocation Cell Walls 25%
• Minor Si 25%
• Minor Alloying Elements 25%
• Element Segregation 25%
• Segregation of Alloying Elements 25%

Engineering

• Additive Manufacturing 100%
• Microstructural Evolution 100%
• Alloying Element 100%
• Minor Element 100%
• Thermodynamic Calculation 50%
• Stress Relief 50%
• Critical Role 50%
• Phase Lead 50%
• Processing Condition 50%
• Powder Bed 50%
• Dislocation Core 50%
• Service Condition 50%
• Powder Bed Fusion 50%
• Solution Strengthened Alloy 50%
• Phase Composition 50%
• Grain Boundaries 50%
• Solid Solutions 50%

Material Science

• Microstructural Evolution 100%
• Inconel 625 100%
• Alloying 66%
• Three Dimensional Printing 66%
• Microscopy 33%
• Heat Treatment 33%
• Laser Powder Bed Fusion 33%
• Metal 33%
• Electron Microscopy 33%
• Phase Composition 33%
• Grain Boundaries 33%
• Solid Solutions 33%