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Moldflow Insight
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      • Simulation models
        • Changing viscosity models or parameters
        • 2-domain Tait pvT model
        • Cross-WLF viscosity model
        • Extension Viscosity model
        • Herschel-Bulkley-WLF viscosity model
        • Juncture Loss model
        • Matrix viscosity model
        • Moldflow Second Order Viscosity model
        • Viscosity model for underfill encapsulation
        • Reactive viscosity model
        • N-th Order Kinetics model
        • Mori-Tanaka micro-mechanics model
        • Preform porosity and permeability model
        • Dynamic surface tension model
        • Coolant viscosity model
        • Electromagnetic field modeling
        • Finite element formulation for induction heating
        • Slip velocity model
        • Fitted Classical Nucleation model
        • Viscosity model for Microcellular injection molding
        • Surface tension model for Microcellular injection molding
        • Gas diffusion model for Microcellular injection molding
        • Gas Solubility model for microcellular injection molding
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    Simulation models

    Predicting how a molten material flows in a mold, can be very complex. There are several models that have been developed to help with this prediction, which vary in the dependencies they consider and the molding process they address.

    Pages in this section
    • Changing viscosity models or parameters
    • 2-domain Tait pvT model
    • Cross-WLF viscosity model
    • Extension Viscosity model
    • Herschel-Bulkley-WLF viscosity model
    • Juncture Loss model
    • Matrix viscosity model
    • Moldflow Second Order Viscosity model
    • Viscosity model for underfill encapsulation
    • Reactive viscosity model
    • N-th Order Kinetics model
    • Mori-Tanaka micro-mechanics model
    • Preform porosity and permeability model
    • Dynamic surface tension model
    • Coolant viscosity model
    • Electromagnetic field modeling
    • Finite element formulation for induction heating
    • Slip velocity model
    • Fitted Classical Nucleation model
    • Viscosity model for Microcellular injection molding
    • Surface tension model for Microcellular injection molding
    • Gas diffusion model for Microcellular injection molding
    • Gas Solubility model for microcellular injection molding

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