Portland cement is the most produced material in the world. The hydration process of cement consists of a group of complex chemical reactions. In order to investigate the mechanism of cement hydration, it is vital to study the hydration of each phase separately. An integrated model is proposed in this paper to simulate the dissolution of alite under different hydrodynamic conditions at microscale, coupling Kinetic Monte Carlo model (KMC), Lattice Boltzmann method (LBM) and diffusion boundary layer (DBL). The dissolution of alite is initialised with KMC. Two Multiple-relaxation-time (MRT) LB models are used to simulate the fluid flow and transport of ions, respectively. For solid-liquid interface, DBL is adapted to calculate the concentratio...
A lattice Boltzmann model for the dissolution of solid structures of arbitrary shape in multi-compon...
Understanding the mechanism of ion diffusion in hardened cement paste is of great importance for pre...
In dissolution processes, during geometry evolution, the two-phase interface is continuously changed...
Portland cement is the most produced material in the world. The hydration process of cement consists...
Portland cement is the most produced material in the world. The hydration process of cement consists...
The lattice Boltzmann (LB) method is an efficient numerical approach which is widely utilized in the...
The current contribution proposes a multi-scale bridging modeling approach for the dissolution of cr...
In this paper, a newly developed lattice Boltzmann method based reactive transport model to simulate...
Calcium leaching is one of the important degradation mechanisms causing dissolution of the crystalli...
Cement clinkers containing mainly belite (β-C₂S as a model crystal), replacing alite, offer a promis...
We describe a lattice Boltzmann modelling framework for fluid sorption coupled to a dynamic model of...
Portlandite, as a most soluble cement hydration reaction product, affects mechanical and durability ...
In order to assess the durability of concrete structures, it is essential to investigate the ionic d...
Dissolution phenomena, and more generally, interactions betweensolids and fluids, gas or liquid, are...
A lattice Boltzmann model for the dissolution of solid structures of arbitrary shape in multi-compon...
Understanding the mechanism of ion diffusion in hardened cement paste is of great importance for pre...
In dissolution processes, during geometry evolution, the two-phase interface is continuously changed...
Portland cement is the most produced material in the world. The hydration process of cement consists...
Portland cement is the most produced material in the world. The hydration process of cement consists...
The lattice Boltzmann (LB) method is an efficient numerical approach which is widely utilized in the...
The current contribution proposes a multi-scale bridging modeling approach for the dissolution of cr...
In this paper, a newly developed lattice Boltzmann method based reactive transport model to simulate...
Calcium leaching is one of the important degradation mechanisms causing dissolution of the crystalli...
Cement clinkers containing mainly belite (β-C₂S as a model crystal), replacing alite, offer a promis...
We describe a lattice Boltzmann modelling framework for fluid sorption coupled to a dynamic model of...
Portlandite, as a most soluble cement hydration reaction product, affects mechanical and durability ...
In order to assess the durability of concrete structures, it is essential to investigate the ionic d...
Dissolution phenomena, and more generally, interactions betweensolids and fluids, gas or liquid, are...
A lattice Boltzmann model for the dissolution of solid structures of arbitrary shape in multi-compon...
Understanding the mechanism of ion diffusion in hardened cement paste is of great importance for pre...
In dissolution processes, during geometry evolution, the two-phase interface is continuously changed...