Pages that link to "Item:Q1269117"
From MaRDI portal
The following pages link to Extension of the continuum model for transport phenomena occuring during metal alloy solidification. I: The conservation equations. II: Microscopic considerations (Q1269117):
Displaying 15 items.
- A front-tracking model to predict solidification macrostructures and columnar to equiaxed transitions in alloy castings (Q840179) (← links)
- Heat, mass and momentum transport behaviors in directionally solidifying blade-like castings in different electromagnetic fields described using a continuum model (Q978165) (← links)
- Unsteady conjugate mixed convection phase change of a power law non-Newtonian fluid in a square cavity (Q992922) (← links)
- A model of binary alloy solidification with convection in the melt (Q1200210) (← links)
- A variable property analysis of alloy solidification using the anisotropic porous medium approach (Q1205855) (← links)
- Studies on turbulent momentum, heat and species transport during binary alloy solidification in a top-cooled rectangular cavity (Q1417073) (← links)
- Influence of convection and grain movement on globular equiaxed solidification. (Q1423392) (← links)
- Comparison between lever and Scheil rules for modeling of microporosity formation during solidification (Q1610391) (← links)
- Dual reciprocity boundary element method for convective-diffusive solid-liquid phase change problems. I: Formulation. II: Numerical examples (Q1961533) (← links)
- The discrete nature of grain attachment models in simulations of equiaxed solidification (Q2290213) (← links)
- The effect of velocity based packing schemes on macrosegregation development in simulations of equiaxed solidification (Q2293780) (← links)
- Implications of solid phase interaction mechanisms on momentum, heat and solute transport in semi-solid materials processing (Q2370870) (← links)
- Front tracking approach to modeling binary alloy solidification (Q2967162) (← links)
- Steady-state solidification of aqueous ammonium chloride (Q3506857) (← links)
- A versatile immersed boundary method for high-fidelity simulation of conjugate heat transfer (Q6162848) (← links)