Bioclogging and permeability alteration by L. mesenteroides in a sandstone reservoir: A reactive transport modeling study

Keyphrases

• Reactive Transport 100%
• Sandstone Reservoir 100%
• Bioclogging 100%
• Injection Rate 42%
• Numerical Experiments 28%
• Highly Permeable 28%
• Injection Condition 28%
• Reservoir Scale 28%
• Permeable Zone 28%
• In Situ 14%
• Biopolymers 14%
• Porosity 14%
• Spatial Distribution 14%
• Reservoir Heterogeneity 14%
• Total Mass 14%
• Flow Transport 14%
• Water System 14%
• Fermentative Bacteria 14%
• Solid Surface 14%
• Bacterial Growth 14%
• Well Logging 14%
• Aquifer 14%
• Modeling Tools 14%
• Sucrose Concentration 14%
• Biofilm Growth 14%
• Biomass Growth 14%
• Long Residence Times 14%
• Prediction Tool 14%
• Water Phase 14%
• Lack of Understanding 14%
• Optimum Range 14%
• Microbial Growth 14%
• Biostimulation 14%
• Multiphase Fluid 14%
• Open Hole 14%
• Gas Field 14%
• Performance Condition 14%
• Sub-surface Flow System 14%
• Transport Growth 14%
• Advanced Prediction 14%
• Hydrocarbon Degradation 14%
• Sacramento 14%
• Advanced Modeling 14%
• Scale Application 14%
• Mass Injection 14%

Earth and Planetary Sciences

• Reactive Transport Modeling 100%
• Sandstone 100%
• Sucrose 100%
• Porosity 66%
• California 33%
• Spatial Distribution 33%
• Laboratory Scale 33%
• Flow Velocity 33%
• Reactive Transport 33%
• Subsurface Flow 33%
• Biopolymer 33%
• Solid Surface 33%
• Gas Field 33%
• Biofilm 33%
• Transportation 33%
• Bioremediation 33%
• Hydrocarbon 33%
• Hydrodynamics 33%
• Transport Theory 33%
• Bacterium 33%

Chemical Engineering

• Dextran 100%
• Hydrocarbon 20%