System modeling (B-TM-YT0977)

Aims
- Knowledge and understanding (analyzing and defining problems, conducting research)
- Applying knowledge and understanding (Design physical systems)
- The student is able to analyze moderately complex physical systems in the mechanical, electrical and/or thermodynamic/fluiddynamic domains by describing the systems with either differential equations, transfer functions, state-space models or simulation diagrams in order to determine the system characteristics and be able to perform computer simulations. The system descriptions are found via white box modeling or step response experiments and contain the lowest possible complexity to analyze the relevant system characteristics.
Previous knowledge
It is required that the student has mastered basic mathematics skills specifically differential equations, transfer functions and matrix calculations.
Is included in these courses of study
- Bachelor in Autotechnologie (Sint-Katelijne-Waver) 180 ects.
- Bachelor in Elektromechanica (Sint-Katelijne-Waver) 180 ects.
- Bachelor in Elektronica-ICT (Sint-Katelijne-Waver) 180 ects.
- Bachelor in Ontwerp- en Productietechnologie (Sint-Katelijne-Waver) 180 ects.
- Bachelor of Electronics-ICT - English Programme (Sint-Katelijne-Waver) 180 ects.
- Bachelor of Automotive Technology - English Programme (Sint-Katelijne-Waver) 180 ects.
Activities
3 ects. System modeling (B-TM-YT6394)
Content
Online lectures + guidance sessions based on questions of the students.
The course System Modeling covers the following topics:
- Modelling goals, process definitions, data flow diagram
- 4+1 step approach
- Model equations and mathematical solutions
- Conversion of differential equations into transfer functions
- Model simulation (Simulink, pole-zero map, step-response, bode plot)
- Conversion of differential equations into state space models
- Process delays, distributed systems, nonlinear systems
- Multi domain systems
Course material
Compulsory literature (Lecturing material available on Onderwijs Online):
- Erwin Kreyszig, Advanced Engineering Mathematics, 10th edition, International Student Version (2011)
- Control Systems Engineering,Norman S. Nise, 6th edition, Wiley, ISBN 9780470646120
- Reader Introduction Dynamics, E. Tazelaar et al, HAN, 2016
Software and other materials:
- Matlab, Simulink
Language of instruction: more information
The students can follow presentations in English. In addition, guidance sessions are given in Dutch where, based on questions from the student, the subject matter can be clarified.
Format: more information
Assignments
The workforms used within this module are self-study, working on assignments, simulation exercises, case studies
combined with lectures
Evaluation
System modeling (B-TM-YT7977)
Explanation
Assessment | Grading scale |
---|---|
TOTAL | 1-20/20 scale |
Assessment dimensions:
- Knowledge and understanding (analyzing and defining problems, conducting research)
- Applying knowledge and understanding (Design physical systems)
Assessment criteria:
The student is able to define a model for a physical system using the 4+1 approach
The student is able to set up a model for a physical system by using differential equations and transfer functions
The student is able to analyse transfer functions in Laplace- and frequency domain
The student is able to define state space models
The student is able to analyse 1st and 2nd order physical systems on performance criteria
Information about retaking exams
This course unit does not allow partial mark transfers.
This course unit does not allow partial mark transfers.
The same modalities apply as in the first examination session.