Importance of shear assessment of concrete structures detailed to different capacity design requirements

Keyphrases

• Design Requirements 100%
• Shear Failure 100%
• Concrete Structures 100%
• Structural Members 66%
• Energy Loss 33%
• Analytical Model 33%
• Strength Degradation 33%
• Safety Factor 33%
• Analysis Program 33%
• Shear Strength 33%
• Significant Loss 33%
• Failure Mode 33%
• Seismic Assessment 33%
• Concrete Strength 33%
• Design Codes 33%
• Strengths-based 33%
• Flexural Strength 33%
• Axial Force 33%
• Seismic Provisions 33%
• Ductility Demand 33%
• Ductility Capacity 33%
• Failure Criterion 33%
• Energy Dissipation Capacity 33%
• Supply-demand 33%
• Supply Response 33%
• Shear Resistance 33%
• Earthquake Records 33%
• Limit State 33%
• Transverse Shear 33%
• Design Provisions 33%
• RC Structures 33%
• Nonlinear Dynamic Analysis 33%
• Shear Reinforcement 33%
• Axial Interactions 33%
• Compression Zone 33%

Engineering

• Design Requirement 100%
• Concrete Structure 100%
• Shear Failure 100%
• Structural Member 66%
• Shear Strength 66%
• Energy Dissipation 33%
• Experimental Result 33%
• Analytical Model 33%
• Failure Mode 33%
• Design Code 33%
• Non-Linear Dynamic 33%
• Strength Degradation 33%
• Flexure 33%
• Concrete Strength 33%
• Critical Region 33%
• Axial Force 33%
• Failure Criterion 33%
• Limit State 33%
• Shear Resistance 33%
• Ground Acceleration 33%
• Inelastic Response 33%
• Design Provision 33%
• Safety Factor 33%
• Bending Strength 33%
• Compression Zone 33%