Course: General Systems Theory

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Course title General Systems Theory
Course code AUART/ADOTS
Organizational form of instruction Lecture
Level of course Doctoral
Year of study not specified
Semester Winter
Number of ECTS credits 10
Language of instruction Czech
Status of course Optional
Form of instruction Face-to-face
Work placements This is not an internship
Recommended optional programme components None
Lecturer(s)
  • Matušů Radek, doc. Ing. Ph.D.
  • Pekař Libor, doc. Ing. Ph.D.
Course content
- Dynamic systems and signals, classification of systems and signals, linear and nonlinear systems and models. - Discrete-time and continuous-time systems, mathematical description of systems. - Differential and difference equations, Laplace transform, Z-transform. - State-space and input-output description of systems. - Transformation of state variables. - Stability of systems and its criteria. - Solution of linear systems, solution of state equations, properties of systems, observability, controllability, reachability,... - Computational tools for simulation of systems and signals, Matlab, Simulink.

Learning activities and teaching methods
Dialogic (Discussion, conversation, brainstorming), Methods for working with texts (Textbook, book), Individual work of students
prerequisite
Knowledge
Knowledge of mathematics and automatic control theory at the level of master's degree programs is assumed.
Knowledge of mathematics and automatic control theory at the level of master's degree programs is assumed.
learning outcomes
Completion of the course provides competencies in the following areas: Dynamic systems and signals, classification of systems and signals, linear and nonlinear systems and models. Discrete-time and continuous-time systems, mathematical description of systems. Differential and difference equations, Laplace transform, Z-transform. State-space and input-output description of systems. Transformation of state variables. Stability of systems and its criteria. Solution of linear systems, solution of state equations, properties of systems, observability, controllability, reachability,... Computational tools for simulation of systems and signals, Matlab, Simulink.
Completion of the course provides competencies in the following areas: Dynamic systems and signals, classification of systems and signals, linear and nonlinear systems and models. Discrete-time and continuous-time systems, mathematical description of systems. Differential and difference equations, Laplace transform, Z-transform. State-space and input-output description of systems. Transformation of state variables. Stability of systems and its criteria. Solution of linear systems, solution of state equations, properties of systems, observability, controllability, reachability,... Computational tools for simulation of systems and signals, Matlab, Simulink.
teaching methods
Individual work of students
Individual work of students
Dialogic (Discussion, conversation, brainstorming)
Dialogic (Discussion, conversation, brainstorming)
Methods for working with texts (Textbook, book)
Methods for working with texts (Textbook, book)
assessment methods
Analysis of a presentation given by the student
Analysis of a presentation given by the student
Composite examination (Written part + oral part)
Composite examination (Written part + oral part)
Analysis of seminar paper
Analysis of seminar paper
Recommended literature
  • Corriou, J.-P. Process Control: Theory and Applications. Springer-Verlag London, 2004.
  • Dorf, R. C., Bishop, R. H. Modern Control Systems. Pearson (13th Edition), 2016.
  • Franklin, G. F., Powell, J. D., Emami-Naeini, A. Feedback Control of Dynamic Systems. Pearson (8th Edition), 2018.
  • Goodwin, G. C., Graebe, S. F., Salgado M. E. Control System Design. Prentice Hall, 2001.
  • Huba, M., Hubinský, P., Žáková, K. Teória systémov. STU v Bratislavě, 2002.
  • Chen, B. M., Lin, Z., Shamash, Y. Linear Systems Theory: A Structural Decomposition Approach. Birkhäuser Boston, 2004.
  • Kailath, T. Linear Systems. Prentice Hall, 1980.
  • Nise, N. S. Nise's Control Systems Engineering. Wiley, 2015.
  • OGATA, K. Modern Control Engineering. Prentice Hall Inc. Englewood Cliffs, New Jersey, 2002. ISBN 0-13-060907-2.
  • Ogata, K. System Dynamics. Pearson (4th Edition), 2003.
  • Štecha, J., Havlena, V. Teorie dynamických systémů. Nakladatelství ČVUT v Praze, 2002.


Study plans that include the course
Faculty Study plan (Version) Category of Branch/Specialization Recommended year of study Recommended semester
Faculty: Faculty of Applied Informatics Study plan (Version): Engineering Informatics (16) Category: Special and interdisciplinary fields - Recommended year of study:-, Recommended semester: Winter
Faculty: Faculty of Applied Informatics Study plan (Version): Engineering Informatics (16) Category: Special and interdisciplinary fields - Recommended year of study:-, Recommended semester: Winter
Faculty: Faculty of Applied Informatics Study plan (Version): Engineering Informatics (0) Category: Special and interdisciplinary fields - Recommended year of study:-, Recommended semester: Winter
Faculty: Faculty of Applied Informatics Study plan (Version): Automatic Control and Informatics (0) Category: Special and interdisciplinary fields - Recommended year of study:-, Recommended semester: Winter