How can biogeomechanical alterations in shales impact caprock integrity and CO₂ storage?

Keyphrases

• Shale 100%
• CO2 Storage 100%
• Caprock Integrity 100%
• Energy Industry 50%
• Storage Applications 50%
• Unconfined Compressive Strength 50%
• Poisson's Ratio 50%
• Microbial Processes 50%
• CO2 Geological Storage 50%
• CO2 Storage Integrity 50%
• Carbon Capture and Storage 50%
• Carbon Footprint 25%
• Microfracture 25%
• Mechanical Integrity 25%
• Growth Conditions 25%
• Mechanical Response 25%
• Global Warming 25%
• Fracture Toughness 25%
• Porosity 25%
• Rock Sample 25%
• Low Carbon 25%
• Shale Formation 25%
• Temperature Conditions 25%
• Local Mechanical Properties 25%
• Caprock 25%
• Shale Reservoir 25%
• Shale Rock 25%
• Long-term Storage 25%
• Niobrara Shale 25%
• Depleted Hydrocarbon Reservoirs 25%
• Shale Core 25%
• Depleted Shale Reservoir 25%
• Pre-existing Fracture 25%
• Eagle Ford Shale 25%
• Storage Potential 25%
• Marcellus Shale 25%
• Fractured Shale 25%
• Clay Mineral Content 25%
• Bulk Mechanical Properties 25%
• Calcite Content 25%
• Major Challenges 25%
• Long-term Integrity 25%
• Microbial Solution 25%
• Potential Leakage 25%

Engineering

• CO2 Storage 100%
• Carbon Capture and Storage 40%
• Poisson Ratio 40%
• Compression Strength 40%
• Compressive Strength 40%
• Carbon Footprint 20%
• Mechanical Response 20%
• Rock Sample 20%
• Global Warming 20%
• Microbial 20%
• Shale Formation 20%
• Growth Condition 20%
• Temperature Time 20%
• Temperature Condition 20%
• Core Samples 20%
• Microfracture 20%
• Natural Fracture 20%
• Niobrara Shale 20%
• Porosity 20%
• Mechanical Property 20%
• Fracture Strength 20%
• Carbon Dioxide 20%

Earth and Planetary Sciences

• Carbon Dioxide 100%
• Energy Industry 50%
• Poisson Ratio 50%
• Carbon Capture and Storage 50%
• CO2 Geological Storage 50%
• Compressive Strength 50%
• Global Warming 25%
• Carbon Footprint 25%
• Hydrocarbon Reservoir 25%
• Fracture Strength 25%
• Calcite 25%
• Porosity 25%
• Clay Mineral 25%
• Protective Atmosphere 25%