Effect of shell mold thickness and insulating wool pattern on internal porosity in investment casting of vortex flow meter

Keyphrases

• Wool 100%
• Internal Porosity 100%
• Shell Mold 100%
• Investment Casting 100%
• Mould Wall Thickness 100%
• Vortex Flowmeter 100%
• Thermal Properties 60%
• Numerical Simulation 40%
• Layer Thickness 40%
• Computer-aided 40%
• Zircon 40%
• Pipe Wall 40%
• Mechanical Properties 20%
• Low Coefficient of Thermal Expansion 20%
• X-ray Study 20%
• Chemical Stability 20%
• Silica 20%
• Binder 20%
• Heat Transfer Coefficient 20%
• Foundry 20%
• Best Solution 20%
• Fracture Resistance 20%
• High Temperature Applications 20%
• Process Improvement 20%
• Casting Defects 20%
• Hotspot Regions 20%
• Improvement Proposal 20%
• Engineering Materials 20%
• Colloidal Silica 20%
• High Temperature Range 20%
• Thermal Insulation 20%
• Modulus of Rupture 20%
• Shrinkage Defects 20%
• ZrSiO4 20%
• Complex Vortex 20%
• Mold Shell 20%
• Primary Coating 20%

Engineering

• Internals 100%
• Vortex Flow 100%
• Porosity 100%
• Flowmeter 100%
• Investment Casting 100%
• Layer Thickness 40%
• Pipe Wall 40%
• Computer Simulation 40%
• Hot Spot 40%
• Optimal Design 20%
• Input Data 20%
• Temperature Range 20%
• Numerical Approach 20%
• Heat Transfer Coefficient 20%
• Engineering 20%
• Process Improvement 20%
• Expansion Coefficient 20%
• Silica (Sio2) 20%
• Casting Defect 20%
• High Temperature Applications 20%
• Thermal Insulation 20%
• Modulus of Rupture 20%
• Ray Inspection 20%
• Colloidal Silica 20%
• Fracture Strength 20%
• Fracture Resistance 20%

Material Science

• Vortex 100%
• Thermal Property 60%
• Silicon Dioxide 20%
• Thermal Expansion 20%
• Fracture Toughness 20%
• Thermal Insulation 20%
• Engineering Material 20%