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Signals, Systems and Simulation
Scholar Year: 2019/2020 - 1S
| Code: |
LACI21015 |
|
Acronym: |
SSS |
| Scientific Fields: |
Controlo e Processos |
Courses
| Acronym |
N. of students |
Study plan |
Curricular year |
ECTS |
Contact time |
Total Time |
| EACI |
32 |
|
2º |
6,0 |
75 |
160,0 |
Teaching language
Portuguese
Intended learning outcomes (Knowledges, skills and competencies to be developed by the students)
Capacity to represent and analyze signals in time and frequency. Capacity to represent, analyze and create models of systems in time domain and frequency. Application of the Laplace and Fourier transforms for signals and systems study. Mathematical models of systems.Study of system response in time domain and frequency. Analyze the system stability. Modeling and simulating systems using software tools Matlab and Simulink
Syllabus
1.Signals: transformations, basic signs, generalized functions.2.Fourier transform, properties, sampling theorem, aliasing.3.Systems: representation, properties. Laplace transform, properties.4.SLIT: representation, transfer function, poles and zeros, block diagrams. Mathematical modeling of systems, state variables, converting between representations.5.Time response, dominant poles, stationary error. Stability: Routh-Hurwitz method.6.Frequency response, Bode plots, asymptotic approximations, minimum phase systems.7.Modeling and simulating systems. Laboratory execution using Matlab and Simulink platform: working desktop, data structures, operators, control toolbox, processing, and symbolic representation. Building models in Simulink for system modeling and simulation
Software
Matlab e Simulink
Keywords
Technological sciences > Engineering > Systems engineering > Systems theory
Technological sciences > Engineering > Systems engineering > Systems theory
Demonstration of the syllabus coherence with the UC intended learning outcomes
Matter of Chapters 1 and 2 ensure the ability to analyze and represent signals. The subject of Chapters 3 and 4 ensures the representation and modeling of systems. The contents of Chapters 5 and 6 develop the system analysis for their response in the time domain and frequency as well as the stability conditions. In chapter 7, the software tools used by students are powerful and actual tools for laboratory analysis of signs and systems
Teaching methodologies
Theoretical and Practical Lessons: presentation of concepts and application examples. Resolution of Exercises by students.Laboratories: signal analysis and circuit mounting for systems analysis and simulation.Computer simulation of systems and analysis of their responses (time and frequency), using software Matlab and Simulink.Evaluation: 2 tests during classes or final exam. Reports of laboratory work with a weight of 30%.
Demonstration of the teaching methodologies coherence with the curricular unit's intended learning outcomes
The existence of classes with theoretical and practical component is suited to the characteristics and content of this curricular unit. The concepts that must be learned and used require a careful exposition. The resolution of exercise strengthens their understanding. The existence of laboratory work is important to allow physical contact with the systems and viewing their responses on the oscilloscope and computer simulation.
Assessment methodologies and evidences
Assessment Type Distribution assessment with final exam Assessment Components
Continuous evaluation: - 2 tests
The minimum mark in each test is 8.0 points.
The theoretical grade (T) is obtained by the mean of the tests and must be greater than or equal to 9.5v.
Final exam (alternative to tests):
Classification should be greater than or equal to 9.5v (T).
Labs: Report delivery at the end of class: The grade (L) is given by the average report grade and must be greater than or equal to 9.5v.
The final grade is the weighted average of the two (T, L): NF = 0.7 T + 0.3 L
Final scores higher than 17 are defended in oral test.
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Rules for taking tests:
• When requested, an identification document must be presented during the tests.
• Only written tests are accepted in ESTSetúbal test/examination sheets.
• The room can only be abandoned 30 minutes after the start of the test and implies the final delivery of the test, and the delay cannot exceed 15 minutes under any circumstances.
• Calculation machines with graphics or alphanumeric capabilities cannot be used during the tests unless the teacher explicitly authorizes them.
• During the tests, the handling or display of mobile phones (which must be switched off) and other electronic equipment is not allowed, and any of this type of equipment is used to cancel the test.
Assement and Attendance registers
| Description |
Type |
Time (hours) |
End Date |
| Attendance (estimated) |
Classes |
0 |
|
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Total: |
0 |
Primary Bibliography
Rogério Largo;Folhas da disciplina, Disponibilizados no SI |
Docentes da disciplina;Listas de Exercícios (Para uso nas aulas TP), Disponibilizados no SI |
Oppenheim, Willsky;Signals and Systems, Prentice-Hall ((1ª parte da matéria)) |
Docentes da disciplina;Guias dos Laboratórios ( Disponibilizados no SI) |
Katsuhiko Ogata;Engenharia de Controle Moderno, Prentice-Hall do Brasil ((2ªparte da matéria) ) |
Secondary Bibliography
Isabel Lourtie; Sinais e Sistemas, Escolar Editora , 2002 (1ª parte da matéria) |
Fred Taylor;Principle of Signal and Systems, McGraw-Hill |
Simon Haykin, B. Van Veen ;Signal and Systems, J. Wiley & Sons |
Katsuhiko Ogata; Modern Control Engineering, Prentice-Hall (2ª parte da matéria) |
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