Towards prediction of microstructure during laser based additive manufacturing process of Co-Cr-Mo powder beds

Keyphrases

• Microstructure 100%
• Microstructural 100%
• Grain Size 100%
• Additive Manufacturing Process 100%
• Solidification Time 100%
• Powder Bed 100%
• Laser Additive Manufacturing 100%
• Co-Cr-Mo Powders 100%
• Grain Boundary 50%
• Temperature Gradient 50%
• High Power 50%
• Fluid Flow 50%
• High-resolution Scanning 50%
• Processing Parameters 50%
• Microstructural Characteristics 50%
• Mechanical Strength 50%
• Columnar 50%
• Computational Fluid Dynamics Modeling 50%
• Equiaxed 50%
• Cooling Rate 50%
• Volume-based 50%
• Small Variation 50%
• Misoriented 50%
• Melting Flow 50%
• Systematic Design 50%
• Nanoindentation Test 50%
• Laser Power 50%
• Low Laser Power 50%
• Temperature Evolution 50%
• Criteria-based 50%
• Grain Morphology 50%
• Finite Volume 50%
• Processing Map 50%
• Microstructure Design 50%
• Heat Transfer Characteristics 50%
• Morphological Variation 50%
• Temperature Cooling 50%
• Flow Heat Transfer 50%
• Melt Pool 50%
• Fine-grained Structure 50%
• Cooling Curve 50%
• Grain Boundary Misorientation 50%
• Solidification Characteristics 50%
• Melt Pool Depth 50%
• Laser Speed 50%

Engineering

• Microstructure 100%
• Additive Manufacturing Process 100%
• Powder Bed 100%
• Grain Boundary 66%
• Laser Power 66%
• Scan Rate 66%
• Melt Pool 66%
• Solidification Time 66%
• Temperature Gradient 33%
• Fluid Flow 33%
• Processing Parameter 33%
• Computational Fluid Dynamics 33%
• Dynamic Models 33%
• Cooling Rate 33%
• Measured Strength 33%
• Fine Grain 33%
• Nanoindentation Test 33%
• Processing Map 33%
• Microstructural Characteristic 33%
• Cooling Curve 33%
• Additive Manufacturing 33%

Material Science

• Three Dimensional Printing 100%
• Powder 100%
• Solidification 100%
• Grain Boundary 25%
• Grain Size 25%
• Mechanical Strength 12%
• Computational Fluid Dynamics 12%
• Morphology 12%
• Crystal Microstructure 12%
• Nanoindentation 12%
• Fluid Flow 12%
• Systematic Design 12%