Geomechanical analysis of the stability conditions of shallow cavities for Compressed Air Energy Storage (CAES) applications

Keyphrases

• Compressed Air Energy Storage 100%
• Analytical Model 100%
• Stability Condition 100%
• Shallow Cavity 100%
• Energy Storage Applications 100%
• Geomechanical Analysis 100%
• Dimensionless Groups 66%
• Safety Factor 66%
• Air Storage 66%
• Compressed Air Energy Storage System 66%
• Underground Cavities 66%
• Limit Equilibrium Method 66%
• Minnesota 33%
• Energy Production 33%
• Electrical Energy 33%
• 20th Century 33%
• Numerical Model 33%
• Gas Storage 33%
• Iron Mining 33%
• Result Comparison 33%
• Scalar 33%
• Range of Values 33%
• Internal Pressure 33%
• Electricity Demand 33%
• Compress 33%
• Nonconservative 33%
• Cavity Design 33%
• Finite Difference Model 33%
• Underground Opening 33%
• Circular Opening 33%
• Multidisciplinary Projects 33%
• Circular Cavity 33%
• Electrical Grid 33%
• Limit Equilibrium 33%
• Limit Analysis 33%
• Terzaghi 33%
• Lower Bound Theorem 33%
• Lower Bound Techniques 33%
• Mining Works 33%
• Geomechanical Stability 33%
• Electrical Plants 33%
• Underground Mining Works 33%
• Frictional Strength 33%
• Spherical Opening 33%
• Cylindrical Opening 33%

Engineering

• Compressed Air Energy Storage 100%
• Stability Condition 100%
• Energy Storage Application 100%
• Analytical Model 100%
• Dimensionless Group 66%
• Compressed Air Energy Storage System 66%
• Equilibrium Model 66%
• Energy Production 33%
• Electrical Energy 33%
• Safety Factor 33%
• Model Type 33%
• Limit Analysis 33%
• Factor of Safety 33%
• Electrical Grid 33%
• Fundamental Problem 33%
• Electricity Demand 33%
• Numerical Model 33%
• Internal Pressure 33%
• Electrical Plant 33%