Course Details
Dynamics of structures
Academic Year 2022/23
DDB035 course is part of 4 study plans
DKC-K Winter Semester 1st year
DPC-K Winter Semester 1st year
DKA-K Winter Semester 1st year
DPA-K Winter Semester 1st year
Oscillation of the dynamic system, FEM application, modal analysis, solution of the generalized problem of the eigenvalues, subspace iteration and the Lancz method, response on the general dynamic excitation, procedures of integration of the motion equations, response to the harmonic excitation, response to the seismic excitation, design and evaluation of structures loaded with machines, wind and seismicity, non-linear dynamics.
Course Guarantor
Institute
Objective
Study of modern methods of the dynamic response of the bar, planar and massive structures (concentrating on the problems related to the thesis topics). Advanced knowledge of the structure oscillation theory, the appropriate terminology, design and evaluation of structures under the effect of circulating machines, wind and seismicity.
Syllabus
1. Introduction. Oscillation of dynamic system with one degree of freedom.
2. Dynamic continuous systems. Traditional solution of the bar and plate rotation.
3. Dynamic systems with various degrees of freedom. Derivation of the mass matrix of the structure.
4. Solving dynamic problems with the use of the Finite Element Method. Types of analyses.
5. Modal analysis. Generalized problem of the eigenvalues. Introduction to the theory of solution.
6. Detail transformation, spectrum separation, QR, QL matrix decomposition, ortogonalization, etc.
7. Subspace iteration, Lancz method. Implementation to programs.
8. Solution of problems in the time period. Method of decomposition according to the proper oscillation shape. Integration of the motion equations. Implicit and explicit procedures of integration.
9. Special types of response. Response to the harmonic excitation, response to the seismic excitation. Linear spectrum of response. Use of the response spectra for the calculation.
10. Generation of the response spectra.
11. Design and evaluation of structures under the effect of the circulating machines.
12. Design and evaluation of structures under the effect of the wind.
13. Introduction to the non-linear dynamics of structures.
Prerequisites
Theory bases corresponding to the knowledge of an engineer. Work with the technical literature in the Czech as well as of foreign languages.
Language of instruction
Czech
Credits
8 credits
Semester
winter
Forms and criteria of assessment
examination
Specification of controlled instruction, the form of instruction, and the form of compensation of the absences
Extent and forms are specified by guarantor’s regulation updated for every academic year.
Offered to foreign students
Not to offer
Course on BUT site
Lecture
13 weeks, 3 hours/week, elective
Syllabus
1. Introduction. Oscillation of dynamic system with one degree of freedom.
2. Dynamic continuous systems. Traditional solution of the bar and plate rotation.
3. Dynamic systems with various degrees of freedom. Derivation of the mass matrix of the structure.
4. Solving dynamic problems with the use of the Finite Element Method. Types of analyses.
5. Modal analysis. Generalized problem of the eigenvalues. Introduction to the theory of solution.
6. Detail transformation, spectrum separation, QR, QL matrix decomposition, ortogonalization, etc.
7. Subspace iteration, Lancz method. Implementation to programs.
8. Solution of problems in the time period. Method of decomposition according to the proper oscillation shape. Integration of the motion equations. Implicit and explicit procedures of integration.
9. Special types of response. Response to the harmonic excitation, response to the seismic excitation. Linear spectrum of response. Use of the response spectra for the calculation.
10. Generation of the response spectra.
11. Design and evaluation of structures under the effect of the circulating machines.
12. Design and evaluation of structures under the effect of the wind.
13. Introduction to the non-linear dynamics of structures.