Geophysical observations and numerical modeling constrain mining-induced subsidence and fault reactivation: A case study

Keyphrases

• Numerical Modeling 100%
• Fault Slip 100%
• Fault Reactivation 100%
• Mining-induced Subsidence 100%
• Geophysical Observations 100%
• Observation Oriented Modeling 100%
• High Energy 66%
• Stress Redistribution 66%
• Deep-sea Mining 66%
• Seismic Events 66%
• Mining-induced Stress 66%
• Fault Instability 66%
• Footwall 66%
• High-resolution 33%
• Numerical Simulation 33%
• Event Frequency 33%
• Mining Environment 33%
• Release Rate 33%
• Physics-based 33%
• Hanging Wall 33%
• Subsidence 33%
• Rock Mass 33%
• Stress Perturbation 33%
• Fault Displacement 33%
• Mined-out Area 33%
• 3D numerical Modeling 33%
• Induced Seismicity 33%
• Reverse Fault 33%
• Energy Event 33%
• Hazard Reduction 33%
• Numerical Framework 33%
• Hazard Risk 33%
• Slip Mechanism 33%
• Differential Stress 33%
• Temporal Clustering 33%
• Kinematic Constraints 33%
• Working Face 33%
• Preexisting Fault 33%
• Seismic Energy Release 33%
• Seismic Risk Mitigation 33%
• Overlying Strata 33%
• Chinese Coal Mine 33%
• Mining Operations 33%
• Microseismic Monitoring 33%

Earth and Planetary Sciences

• Fault Slip 100%
• Subsidence 100%
• Numerical Modeling 100%
• Seismic Energy 100%
• Footwall 66%
• China 33%
• Moment Tensor 33%
• Clustering 33%
• Fracturing 33%
• Coal Mine 33%
• Fault Displacement 33%
• Induced Seismicity 33%
• Reverse Fault 33%
• Risk Management 33%
• Microseismic Monitoring 33%
• Numerical Simulation 33%