Unravelling Champlain Clay Subsidence: Integrating Persistent Scatterer InSAR and Finite-Element Modeling

Keyphrases

• Finite Element Modeling 100%
• Champlain Sea Clay 100%
• Subsidence 100%
• Persistent Scatterer InSAR 100%
• Finite Element Method 33%
• Pore Pressure 33%
• Clay Layer 33%
• InSAR Technique 33%
• Canada 16%
• Quebec 16%
• Climate Change 16%
• Numerical Modeling 16%
• Temperature Measurement 16%
• St. Lawrence River 16%
• Linear Approach 16%
• Vertical Displacement 16%
• Finite Element Simulation 16%
• Maximum Range 16%
• Pressure Data 16%
• Finite Element Method Model 16%
• Theory Method 16%
• Biot's Theory 16%
• Nonlinear Methods 16%
• Soil Deformation 16%
• Soil Settlement 16%
• Soil Displacement 16%
• InSAR Method 16%
• Excessive Decline 16%
• Fractured Clay 16%
• Vertical Ground Movements 16%
• Intact Clay 16%
• River Valley 16%
• Fine-grained Soils 16%
• Nonlinear Soil 16%
• Displacement Velocity 16%
• Land Subsidence 16%
• SARPROZ 16%
• Poroelastic Theory 16%
• Water Crisis 16%
• Seasonal Trends 16%
• Soil Heave 16%

Engineering

• Fem Model 100%
• Scatterer 100%
• Finite Element Analysis 66%
• Clay Layer 33%
• Climatic Change 16%
• Climate Change 16%
• Numerical Modeling 16%
• Ground Movement 16%
• Pressure Data 16%
• Test Site 16%
• Grained Soil 16%
• Deformation Capture 16%

Earth and Planetary Sciences

• Subsidence 100%
• Pore Pressure 66%
• Climate Change 33%
• Canada 33%
• Quebec 33%
• Ground Motion 33%
• Numerical Modeling 33%
• Biot Theory 33%
• Poroelasticity 33%