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Dissolution-After-Precipitation (DAP): a simple microfluidic approach for studying carbonate rock dissolution and multiphase reactive transport mechanisms

XU Jian-ping, Matthew T. Balhoff

2022Lab on a Chip20 citationsDOI

Abstract

moves rapidly and continuously seeks to enter a widening wormhole from a narrower wormhole or the porous regions, generating phenomena such as ganglia redistribution and counterflow (flow of gas opposite to acid flow). Extensive independent experiments are conducted to verify the reproducibility of the observed phenomena/mechanisms and further analyze them. Real-time monitoring of fluid pressure drop during dissolution is implemented to complement microscopy image analysis. Our method can be implemented repeatedly on the same chip, which offers a convenient and inexpensive option to study pore-scale reactive transport mechanisms.

Topics & Concepts

DissolutionPrecipitationCarbonateChemical engineeringMicrofluidicsMineralogyMaterials scienceChemistryMetallurgyNanotechnologyEngineeringMeteorologyPhysicsEnhanced Oil Recovery TechniquesGroundwater flow and contamination studiesCO2 Sequestration and Geologic Interactions
Dissolution-After-Precipitation (DAP): a simple microfluidic approach for studying carbonate rock dissolution and multiphase reactive transport mechanisms | Litcius