The wettability between solid and porosity plays an important role in the growth of dendrites and pore morphology during solidification of alloys. In this original article we use a two-dimensional coupled lattice Boltzmann-cellular automata-finite-difference (LB-CA-FD) model to simulate the effect of wettability on the dendritic and pore morphologies. Wettability can be adjusted by adjusting the fluid-solid interaction coefficient. The predicted results show that the wettability can strongly influence the formation of the dendritic and bubble structures. The solid-gas coupled growth occurs for the poor wettability, while the bubbles are engulfed by the growing dendrite for the good wettability. It can be found that the cooling rate can stro...
A three-dimensional (3-D) cellular automata (CA) model coupled with the finite-element (FE) method h...
A new two-dimensional modeling approach combining the cellular automaton(CA) and the lattice Boltzma...
Fluid fl ow can signifi cantly change the evolution of microstructural morphology. However, relative...
A three-dimensional (3D) lattice Boltzmann (LB) model is developed to simulate the dendritic growth ...
This paper presents a comparative study between the pseudopotential Shan-Chen model and the phase fi...
A multi-relaxation-time (MRT) lattice Boltzmann (LB) based model is utilized to simulate the dendrit...
A three-dimensional (3D) cellular automata (CA) model has been developed for simulation of dendrite ...
It is usual for computational efficiency to simulate growing alloy dendrites during solidification u...
AbstractA two-dimensional (2D) coupled model is developed for the simulation of dendritic growth dur...
To simulate three dimensional (3D) solute-driven dendrite growth, a new numerical technique is intro...
The topic of this dissertation is the solidification of a binary melt. The investigation is separate...
A comprehensive probabilistic model for simulating dendrite morphology and investigating dendritic g...
This article presents a novel coupling of numerical techniques that enable three-dimensional convect...
A cellular automata (CA) model has been developed for solidification simulation considering the kine...
A Cellular Automaton (CA) model to track the solid-liquid interface movement combined with finite vo...
A three-dimensional (3-D) cellular automata (CA) model coupled with the finite-element (FE) method h...
A new two-dimensional modeling approach combining the cellular automaton(CA) and the lattice Boltzma...
Fluid fl ow can signifi cantly change the evolution of microstructural morphology. However, relative...
A three-dimensional (3D) lattice Boltzmann (LB) model is developed to simulate the dendritic growth ...
This paper presents a comparative study between the pseudopotential Shan-Chen model and the phase fi...
A multi-relaxation-time (MRT) lattice Boltzmann (LB) based model is utilized to simulate the dendrit...
A three-dimensional (3D) cellular automata (CA) model has been developed for simulation of dendrite ...
It is usual for computational efficiency to simulate growing alloy dendrites during solidification u...
AbstractA two-dimensional (2D) coupled model is developed for the simulation of dendritic growth dur...
To simulate three dimensional (3D) solute-driven dendrite growth, a new numerical technique is intro...
The topic of this dissertation is the solidification of a binary melt. The investigation is separate...
A comprehensive probabilistic model for simulating dendrite morphology and investigating dendritic g...
This article presents a novel coupling of numerical techniques that enable three-dimensional convect...
A cellular automata (CA) model has been developed for solidification simulation considering the kine...
A Cellular Automaton (CA) model to track the solid-liquid interface movement combined with finite vo...
A three-dimensional (3-D) cellular automata (CA) model coupled with the finite-element (FE) method h...
A new two-dimensional modeling approach combining the cellular automaton(CA) and the lattice Boltzma...
Fluid fl ow can signifi cantly change the evolution of microstructural morphology. However, relative...