Evaluation and optimisation of a slurry-based layer casting process in additive manufacturing using multiphase simulations and spatial reconstruction

Keyphrases

• Additive Manufacturing 100%
• Casting Process 100%
• Multiphase Simulation 100%
• Slurry 100%
• Spatial Reconstruction 100%
• 3D Printing 50%
• Coater 50%
• Powder Mixture 50%
• Simulation Environment 25%
• Low Density 25%
• Surface Quality 25%
• Metal Casting 25%
• Macroscopic Behavior 25%
• Binder Jetting 25%
• Mechanical Strength 25%
• Surface Roughness 25%
• Open Source Simulation 25%
• Stress-free 25%
• OpenFOAM 25%
• CFD Model 25%
• Fine Particles 25%
• Volume of Fluid Method 25%
• Application Limits 25%
• High Surface Roughness 25%
• Full Densification 25%
• Ceramic Green Body 25%
• Slurry Layer 25%
• High Packing Density 25%

Engineering

• Additive Manufacturing 100%
• Casting Process 100%
• Three Dimensional Printing 100%
• Parameter Set 50%
• Surface Quality 50%
• Metal Casting 50%
• Simulation Environment 50%
• Binder Jetting 50%
• Computational Fluid Dynamics 50%
• Macroscopic Behavior 50%
• Process Parameter 50%
• Volume of Fluid Method 50%
• High Packing Density 50%
• Densification 50%
• Sintering 50%

Material Science

• Three Dimensional Printing 100%
• Density 66%
• Surface Roughness 66%
• Surface Property 33%
• Metal Casting 33%
• Computational Fluid Dynamics 33%
• Fine Particle 33%
• Binder Jetting 33%
• Sintering 33%
• Strength of Materials 33%