In teaching, my goal is to provide the students with a strong technical background, problem solving skills and understanding of the basic and advanced concepts with an overall aim to prepare them for their future targets, either in practice or in research.
Course content:
- Introduction: Material behavior of concrete and reinforced concrete, concept of confinement, ductility
- Inelastic behavior and analysis: Moment-curvature analysis, curvature-rotation relationship, nonlinear static pushover analysis, behavior and modeling of beam-column joints
- Strengthening: Concept of strengthening, strengthening against axial loads, flexure, shear, strengthening of beam-column joints
- Anchorage and bond: Types of anchors, behavior and design under tension loads, shear loads, anchorages with anchor reinforcement, bond between reinforcement and concrete
- Fire performance: Stress-strain curves of concrete and reinforcement under fire, design against fire, performance of reinforced concrete during fire and post-fire (residual) state, bond under fire
Course content:
- Introduction: Recapitulation of fundamental concepts and basic definitions. Fundamentals of the members under axial load, bending, shear, torsion. Behavior of materials under stress, stress-strain relationships, failure modes and design.
- Stress and strain: Definition of stress, stress notation, stress tensor, transformation of stress, principal stresses, plane stress, mean and deviatoric stress.
- Elastic and inelastic material behavior: Hooke’s law for isotropic, orthotropic and anisotropic materials. Material nonlinearity, yield criteria and failure theories
- The theory of bending: Fundamental concepts of bending, force-deflection relationship, bending stresses, equilibrium, compatibility, constitutive laws.
- Torsion: Torsion in solid and thin walled members, linear elastic solution, torsion in rectangular members
- Energy methods: Concept of stationary potential energy, Castigliano’s theorem, Deflections for statically determinate systems
Course Content
a. Principles of performance based design
b. Evaluation of capacity through nonlinear methods
c. Evaluation of seismic demand
d. Evaluation of performance
e. Methods of performance analysis
f. Recommendations of codes and standards
g. Performance based approach to strengthening
h. Decision of strengthening method through performance analysis
i. Evaluation of capacity of strengthened structure
j. Performance evaluation of strengthened structure
Course Content
a. Stress-strain behavior of reinforced concrete (confinement)
b. Inelastic analysis of flexure dominated members
c. Inelastic analysis of shear dominated members
d. Consideration for axial loads and torsion
e. Obtaining load-deflection relationship for members
f. Obtaining load-deflection relationships for structures (pushover analysis)
g. Capacity design philosophy
h. Performance based design
i. Application using commercial software
Course Content
§ Important aspects in hazard engineering applied to reinforced concrete structures
§ Behavior and design against seismic loads:
- Basics of structural dynamics
- Inelastic behavior of structures
- Seismic demand
- Structural capacity
- Performance-based analysis and design of structures
§ Behavior and design against impact loads:
- Dynamic fracture behavior of concrete
- Concept of inertia and rate sensitivity
- Dynamic behavior of structural elements
§Behavior and design against fire loads:
- Temperature-dependent material behavior of concrete and reinforcement
- Bond behavior under fire
- Behavior and design of structural elements under fire
- Structural fire rating
- Explosive spalling
Course Content
§Bond between reinforcement and concrete
- Behavior of bond between reinforcement and concrete
- Analytical methods and models in International standards
- Spring-based models and applications
- 3D Finite Element models and applications
§Anchorage in concrete construction
- Basic principles of load transfer from Anchorage to concrete
- Analytical methods and models in International standards
- Anchorages with supplementary reinforcement
- Spring-based models and applications
- 3D Finite element models and applications
Course Content
- Requirements on structures in seismic regions
- Typical weaknesses in existing buildings
- Capacity design philosophy
- Global strengthening with RC walls or steel bracings
- Local strengthening using concrete jacketing
- Local strengthening using steel plating
- Local strengthening using FRP wrapping
- Strengthening of beam-column joints