Effect of freezing range on reducing casting defects through 3D sand-printed mold designs

Keyphrases

• Sand 100%
• Casting Defects 100%
• Mold Design 100%
• Sprue 100%
• Mechanical Properties 66%
• Aluminum Alloy 66%
• Additive Manufacturing 66%
• Gray Cast Iron 66%
• 3D Sand Printing 66%
• Conical Helix 66%
• Computed Tomography 33%
• Scanning Electron Microscopy/energy Dispersive Spectroscopy 33%
• Elemental Composition 33%
• Microstructure 33%
• Compositional Properties 33%
• Computational Simulation 33%
• Numerical Modeling 33%
• Metal-polymer 33%
• System Design 33%
• Three-point Bending Test 33%
• Recent Advancements 33%
• Digital Model 33%
• Experimental Validation 33%
• Turbulence 33%
• Additive Manufacturing Process 33%
• Direct Production 33%
• Simulation Validation 33%
• Complex Parts 33%
• Flexural Strength 33%
• Rapid Production 33%
• Metal-ceramic 33%
• Sand Core 33%
• Sand Mold 33%
• Batch Production 33%
• Metal Casting 33%
• Part-based 33%
• Transformative Technology 33%
• Air Entrainment 33%
• Scrap Rate 33%
• Metallurgical Properties 33%
• Binder Jet Additive Manufacturing 33%
• Direct Printing 33%

Engineering

• Casting Defect 100%
• Additive Manufacturing 66%
• Grey Cast Iron 66%
• Elemental Composition 33%
• Batch Manufacturing 33%
• Numerical Modeling 33%
• Statistically Significant Difference 33%
• Additive Manufacturing Process 33%
• Binder Jetting 33%
• Point Bending Test 33%
• Sand Mold 33%
• Metal Casting 33%
• Bending Strength 33%

Material Science

• Three Dimensional Printing 100%
• Mold Design 100%
• Energy-Dispersive X-Ray Spectroscopy 66%
• Cast Iron 66%
• Scanning Electron Microscopy-Energy Dispersive X-Ray 33%
• Tomography 33%
• Flexural Strength 33%
• Binder Jetting 33%
• Metal Casting 33%