Course detail
Structural Analysis
FAST-CD60Acad. year: 2014/2015
The analysis of thin-walled bars. Cross-section characteristics and the shear centre. Solution of the thin-walled bars with opened cross-section. Normal and shear stress. Differential equation of restrained warping torsion of opened cross-section shape. Evaluation of the characteristic quantities of the warping. Analysis of the thin-walled sections of a closed cross-section. Linear stability of the frame structures. Euler’s critical force and the shapes of buckled structure. Elasto-plastic analysis of a bar. The basis of a limit state analysis. The plastic limit load carrying capacity of a cross-section. The plastic limit load carrying capacity of a frame structure. The failure limit states. Introduction to solving basic equation of stress analysis and introduction to basics of fracture mechanics with respect to structural materials: plain/reinforced concrete, high strength/performance concrete, ceramics, metals.
Language of instruction
Number of ECTS credits
Mode of study
Guarantor
Department
Learning outcomes of the course unit
Prerequisites
Co-requisites
Planned learning activities and teaching methods
Assesment methods and criteria linked to learning outcomes
Course curriculum
2. Differential equation of restrained torsion of opened cross-section shape. Evaluation of the characteristic quantities of the torsion.
3. Analysis of the thin-walled sections of a closed cross-section.
4. Linear stability of the frame structures. Euler’s critical force and the shapes of buckled structure.
5. Elasto-plastic analysis of a bar. The basis of a limit state analysis.
6. The plastic limit load carrying capacity of a cross-section The plastic limit load carrying capacity of a frame structure.
7. The failure limit states.
8. Plane stress analysis.
9. Application of Airy stress function to solving of basic equations of linear stress analysis, approximate methods.
10. Fracture mechanics – introduction, linear elastic fracture mechanics.
11. Non-linear fracture mechanics. Approximate methods of non-linear fracture.
12. Fracture parameters – methods od determination. Brittleness, size effect.
13. Using of finite element methods in solution of fracture mechanics problems; application to structural materials: plain/reinforced concrete, high strength/performance concrete, ceramics, metals.
Work placements
Aims
Specification of controlled education, way of implementation and compensation for absences
Recommended optional programme components
Prerequisites and corequisites
Basic literature
Kadlčák, J., Kytýr, J.: Statika stavebních konstrukcí II. VUTIUM Brno, 2009. ISBN 978-80-214-3428-8. (CS)
Recommended reading
Bittnar, Z., Šejnoha, J.: Numerical Methods in Structural Mechanics. Asce Press, Thomas Telford Pub., 1996. (EN)
Servít, R., Doležalová, E., Crha, M.: Teorie pružnosti a plasticity I. SNTL/ALFA Praha, 1981. (CS)
Servít, R., Drahoňovský, Z., Šejnoha, J., Kufner, V.: Teorie pružnosti a plasticity II. STNL/ALFA Praha, 1984. (CS)
Classification of course in study plans
Type of course unit
Lecture
Teacher / Lecturer
Syllabus
2. Differential equation of restrained torsion of opened cross-section shape. Evaluation of the characteristic quantities of the torsion.
3. Analysis of the thin-walled sections of a closed cross-section.
4. Linear stability of the frame structures. Euler’s critical force and the shapes of buckled structure.
5. Elasto-plastic analysis of a bar. The basis of a limit state analysis.
6. The plastic limit load carrying capacity of a cross-section The plastic limit load carrying capacity of a frame structure.
7. The failure limit states.
8. Plane stress analysis.
9. Application of Airy stress function to solving of basic equations of linear stress analysis, approximate methods.
10. Fracture mechanics – introduction, linear elastic fracture mechanics.
11. Non-linear fracture mechanics. Approximate methods of non-linear fracture.
12. Fracture parameters – methods od determination. Brittleness, size effect.
13. Using of finite element methods in solution of fracture mechanics problems; application to structural materials: plain/reinforced concrete, high strength/performance concrete, ceramics, metals.
Exercise
Teacher / Lecturer
Syllabus
2. Solution of the thin-walled bars with opened cross-section.
3. Evaluation of the characteristic quantities of the torsion.
4. Analysis of the thin-walled sections of a closed cross-section.
5. Linear stability of frame structure.
6. Elasto-plastic analysis of a bar.
7. The plastic limit load carrying capacity of a frame structure.
8. The failure limit states.
9. Plane stress analysis.
10. Fracture mechanics - introduction.
11. Linear elastic fracture mechanics.
12. Non-linear fracture mechanics.
13. Approximate methods of non-linear fracture. Credits.