Fully Coupled Hydromechanical Approach for Flow in Fractured Rocks Using Darcy-Brinkman-Biot

Earth and Planetary Sciences

• Rock 100%
• Pore Scale 71%
• Approach 57%
• Deformation 42%
• Seepage 42%
• Fluid Flow 28%
• Model 28%
• Permeability 28%
• Hydrocarbon 14%
• Formulation 14%
• Conservation Equation 14%
• Coupled Flow 14%
• Navier-Stokes Equation 14%
• Fluid Pressure 14%
• Coupling 14%
• Darcy Law 14%
• Poroelasticity 14%
• Geothermal Energy Extraction 14%
• Fracture Flow 14%
• Show 14%
• Interest 14%
• Fracture 14%
• Medium 14%
• Solid 14%
• Continuity 14%
• Carbon Sequestration 14%

Engineering

• Multiscale Model 42%
• Deformation 42%
• Coupled Model 28%
• Models 28%
• Navier-Stokes Equation 14%
• Stokes 14%
• Macroscopic 14%
• Stokes-Brinkman Equation 14%
• Multiscale 14%
• Darcy's Law 14%
• Fluid Pressure 14%
• Conservation Equation 14%
• Fractured Reservoir 14%
• Effective Stress 14%
• Fracture Permeability 14%
• Microfracture 14%
• Surrounding Matrix 14%
• Fracture Flow 14%
• Production 14%
• Couplings 14%
• Determines 14%
• Fracture 14%

Physics

• Rock 100%
• Deformation 42%
• Fluid Flow 28%
• Model 28%
• Hydrocarbon 14%
• Navier-Stokes Equation 14%
• Darcy Law 14%
• Poroelasticity 14%
• Matrix 14%
• Solid State 14%
• Fracture 14%
• Media 14%
• Continuity 14%
• Geothermal Energy Extraction 14%