Quantification of the Impact of Acidified Brine on Fracture-Matrix Transport in a Naturally Fractured Shale Using in Situ Imaging and Modeling

Keyphrases

• In Situ Imaging 100%
• Brine 100%
• Fracture-matrix System 100%
• Naturally Fractured Shale 100%
• In Situ Modeling 100%
• Low pH 66%
• Transport Processes 66%
• Image-based 66%
• Low pH Condition 66%
• Porosity 33%
• Spatially Resolved 33%
• Diffusivity 33%
• Micrometer Scale 33%
• Velocity Distribution 33%
• Energy Recovery 33%
• Micropore 33%
• Continuum Scale 33%
• Hydrogen Storage 33%
• Mechanical Processes 33%
• Positron Emission Tomography 33%
• Flow Transport 33%
• Porosity Change 33%
• Carbonate Minerals 33%
• Flow Process 33%
• Conservative Tracer 33%
• Reactive Transport 33%
• Mass Exchange 33%
• Resource Extraction 33%
• Experimental Complex 33%
• Coupled Transport 33%
• Chemical Reaction Process 33%
• Geologic Materials 33%
• Subsurface Processes 33%
• Unconventional Energy Resources 33%
• Carbon Dioxide Storage 33%
• Geothermal Energy 33%
• Shale Rock 33%
• Hydro-mechanical Processes 33%
• Shale Matrix 33%
• Wolfcamp Shale 33%
• Fracture Scale 33%
• Shale Core 33%
• Naturally Fractured Rocks 33%
• Transport-reaction Processes 33%
• Analytical Transport Model 33%
• Fracture Velocity 33%
• Naturally Fractured 33%

Earth and Planetary Sciences

• Transport Process 100%
• Porosity 100%
• Tomography 50%
• Energy Recovery 50%
• Emissions 50%
• Carbon Dioxide 50%
• Velocity Distribution 50%
• Reactive Transport 50%
• Energy Resource 50%
• Diffusivity 50%
• Carbonate Mineral 50%
• Positron 50%
• Pore Scale 50%
• Geothermal Energy 50%