In geochemically reacting environments, the mineral dissolution and precipitation alters the structural and transport properties of the media of interest. The chemical and structural heterogeneities of the porous media affect the temporal evolution of the permeability with respect to porosity. Such correlations follow a nonlinear trend, which is difficult to estimate a priori and without knowledge of the microstructure itself, especially under the presence of strong chemical gradients. Macroscopic field-scale codes require such an input, and in the absence of exact descriptions, simplified correlations are used. After highlighting the diversity of microstructural evolution paths, due to dissolution, we discuss possible upscaling strategies
Precipitation and growth of solid phases during a reactive fluid flow and solute transport are criti...
Motivated by rock–fluid interactions occurring in a geothermal reservoir, we present a two-dimension...
Reactivity of minerals is controlled by chemical processes at mineral-fluid interfaces acting at ...
In geochemically reacting environments, the mineral dissolution and precipitation alters the structu...
International audienceDisposal in geological clay formations is one of the solutions envisaged for m...
Transport in porous media is quite complex, and still yields occasional surprises. In geological por...
The current conceptual model of mineral dissolution in porous media is comprised of three dissolutio...
Reactive transport is of great importance in chemical science, hydrogeological and environmental app...
Due to spatial scaling effects, there is a discrepancy in mineral dissolution rates measured at diff...
Reactive transport modelling is a powerful tool to assess subsurface evolution in various energy-rel...
Changes of porosity, permeability, and tortuosity due to physical and geochemical processes are of v...
Reactive transport models that describe mineral reactions in porous media rely on laboratory measur...
Background In geochemically perturbed systems where porewater and mineral assemblages are unequilibr...
Porosity evolution at reactive interfaces is a key process that governs the evolution and performanc...
Precipitation and growth of solid phases during a reactive fluid flow and solute transport are criti...
Motivated by rock–fluid interactions occurring in a geothermal reservoir, we present a two-dimension...
Reactivity of minerals is controlled by chemical processes at mineral-fluid interfaces acting at ...
In geochemically reacting environments, the mineral dissolution and precipitation alters the structu...
International audienceDisposal in geological clay formations is one of the solutions envisaged for m...
Transport in porous media is quite complex, and still yields occasional surprises. In geological por...
The current conceptual model of mineral dissolution in porous media is comprised of three dissolutio...
Reactive transport is of great importance in chemical science, hydrogeological and environmental app...
Due to spatial scaling effects, there is a discrepancy in mineral dissolution rates measured at diff...
Reactive transport modelling is a powerful tool to assess subsurface evolution in various energy-rel...
Changes of porosity, permeability, and tortuosity due to physical and geochemical processes are of v...
Reactive transport models that describe mineral reactions in porous media rely on laboratory measur...
Background In geochemically perturbed systems where porewater and mineral assemblages are unequilibr...
Porosity evolution at reactive interfaces is a key process that governs the evolution and performanc...
Precipitation and growth of solid phases during a reactive fluid flow and solute transport are criti...
Motivated by rock–fluid interactions occurring in a geothermal reservoir, we present a two-dimension...
Reactivity of minerals is controlled by chemical processes at mineral-fluid interfaces acting at ...