Course detail

Members of Metal Structures

FAST-BO02Acad. year: 2013/2014

Basics of metal bearing structure design and realization problems. Advantages and disadvantages of steel structures, situation and prospects in the branch.
Material and selection of structural members.
Principles and rules of reliability approach in steel structures, allowable and ultimate limit state design methods. Probabilistic approach in steel structures.
Geometric and static characteristics of open and closed cross-sections of thin-walled steel members.
Connections of metal structures – principles of structural design (bolted, frictional and welded connections).
Tensile members. Bending – elastic and plastic action.
Simple and warping torsion of thin-walled open and closed cross-section members.
Stability and buckling resistance of compression members of solid and composed section.
Lateral buckling.
Members subject to tension and bending, compression and bending stress.
Global and local stability problems. Load-bearing capacity of thin-walled members.
Repeated load resistance of steel structures. Factors affecting steel fatigue strength.

Language of instruction

Czech

Number of ECTS credits

5

Mode of study

Not applicable.

Department

Institute of Metal and Timber Structures (KDK)

Learning outcomes of the course unit

Student will learn and master basic principles a methods of design of the load bearing members of metal structures. Further they will learn and manage the design techniques and procedures of the actual load bearing members and parts according to the standardized European documents.
Partial problems include the questions of material characteristics, dimensioning of connections, design of members under tension, bending, torsion and compression. The essential design problem of the slender and thin-walled members are the tasks focused to the stability and buckling strength of the compression members and beams.
In general, the subject content will be focused to the questions of reliability and efficiency of the load bearing structures.

Prerequisites

Basics of university mathematics, physics and chemistry, statics, strength and plasticity, section characteristics, design principles of structures and traffic constructions, loading of structural systems.

Co-requisites

Mechanics of members and plated structures, numerical methods, computer aided design.

Planned learning activities and teaching methods

The course is taught through lectures, practical classes and self-study assignments. Attendance at lectures is optional, but attendance at classes is compulsory.

Assesment methods and criteria linked to learning outcomes

For the exercise credit: attendance at classes, submission of requested design examples of structural members and written tests. For the subject exam: exercise credit, successful demonstration of knowledge at exam.

Course curriculum

1. Introduction to problems of the design and realization of steel load-bearing structures. Advantages and disadvantages of steel structures, situation and perspective of branch development.
2. Materials and assortment of structural elements.
3. Principles and rules of steel structures reliability, method of allowable stress and limit state design method. Design of steel structures with use of probability approach.
4. Geometric and static characteristics of ope nand closed thin-walled cross-sections of steel structures members.
5. Bolted joints and frictional joints.
6. Fillet welds.
7. Butt welds, plug welds, slott welds.
8. Tension members. Bending of beams - elastic and elastically-plastic action.
9. Saint-Vénant torsion and mixed torsion of thin-walled members with open and closed cross-section.
10. Buckling resistance of compression members with composite and built-up section.
11. Lateral-torsional buckling of girders in bending.
12. Members in bending and tension, and under bending and compression.
13. Load-bearing capacity of thin-walled cross-sections. Critical and post-critical load-bearing capacity of a plain girders with thin walls. Resistance of steel structures to the action of repeated load. Factors which influence pulsating fatigue limit of steel structures.

Work placements

Not applicable.

Aims

The objective of the subject is to introduce students to the problems of this course and to practise acquires knowledge and skills.

Specification of controlled education, way of implementation and compensation for absences

Extent and forms are specified by guarantor’s regulation updated for every academic year.

Recommended optional programme components

Not applicable.

Prerequisites and corequisites

Not applicable.

Basic literature

Ferjenčík, P., Schun, J., Melcher, J. a kol.: Navrhovanie ocelových konštrukcií, 1. časť, 2. časť. ALFA Bratislava - SNTL Praha, 1986. (SK)
Salmon, C.G., Johnson, J.E.: Steel Structures: Design and Behavior. Addison-Wesley Pub Co, 1997. (EN)
Balio, G., Mazzolani, F.M.: Design of Steel Structures. E&FN Spon, 1999. (EN)
Studnička, J.: Ocelové konstrukce. ČVUT v Praze, 2002. (CS)

Recommended reading

SCI-The Steel Construction Institute, Ascot, U.K.: ESDEP-European Steel Design Education Programme, CD ROM. ESDEP Society, 2000. (EN)

Classification of course in study plans

  • Programme B-P-C-ST Bachelor's

    branch VS , 2. year of study, summer semester, compulsory

  • Programme B-P-C-SI Bachelor's

    branch VS , 2. year of study, summer semester, compulsory

  • Programme B-P-E-SI Bachelor's

    branch VS , 2. year of study, summer semester, compulsory

  • Programme B-K-C-SI Bachelor's

    branch VS , 2. year of study, summer semester, compulsory

  • Programme B-P-C-MI Bachelor's

    branch MI , 2. year of study, summer semester, compulsory

Type of course unit

 

Lecture

26 hours, optionally

Teacher / Lecturer

Syllabus

1. Introduction to problems of the design and realization of steel load-bearing structures. Advantages and disadvantages of steel structures, situation and perspective of branch development.
2. Materials and assortment of structural elements.
3. Principles and rules of steel structures reliability, method of allowable stress and limit state design method. Design of steel structures with use of probability approach.
4. Geometric and static characteristics of ope nand closed thin-walled cross-sections of steel structures members.
5. Bolted joints and frictional joints.
6. Fillet welds.
7. Butt welds, plug welds, slott welds.
8. Tension members. Bending of beams - elastic and elastically-plastic action.
9. Saint-Vénant torsion and mixed torsion of thin-walled members with open and closed cross-section.

10. Buckling resistance of compression members with composite and built-up section.
11. Lateral-torsional buckling of girders in bending.
12. Members in bending and tension, and under bending and compression.
13. Load-bearing capacity of thin-walled cross-sections. Critical and post-critical load-bearing capacity of a plain girders with thin walls. Resistance of steel structures to the action of repeated load. Factors which influence pulsating fatigue limit of steel structures.

Exercise

26 hours, compulsory

Teacher / Lecturer

Syllabus

1.Introduction to problems of the design and realization of steel load-bearing structures. Loading of building structures.
2.Materials and assortment of structural elements.
3.Method of allowable stress and limit state design method. Design of steel structures with use of probability approach.
4.Geometric and static characteristics of open and closed thin-walled cross-sections of steel structures members.
5.Bolted joints and frictional joints.
6.Fillet welds. Butt welds, plug welds, slot welds.
7.Tension members. Bending of beams - elastic and elastically-plastic action.
8.Saint-Vénant torsion and mixed torsion of thin-walled members with open and closed cross-section.
9.Buckling resistance of compression members with compact section.
10.Buckling resistance of compression members with built-up section.
11.Lateral-torsional buckling of girders in bending.
12.Members in bending and tension, and under bending and compression.
13.Load-bearing capacity of thin-walled cross-sections.