Course - System Simulation - TEP4240
System Simulation
About
About the course
Course content
This course introduces methods and tools for modeling and simulation of multidomain systems with an emphasis on energy use, reneable energy and energy efficiency in industrial applications, buildings, and processes. The course uses the Modelica language, an object-oriented, equation-based modeling language designed for simulating complex physical systems involving mechanical, electrical, thermal, and control domains.
Learning outcome
Learning Outcomes
After completing the course, the student will have achieved the following learning outcomes:
Knowledge
The student:
- has advanced knowledge of principles and methods for modeling and simulation of physical systems.
- has in-depth understanding of the Modelica language, including its object-oriented and equation-based modeling approach.
- has knowledge of modeling of multidomain systems within mechanical, electrical, thermal, and fluid domains.
- has understanding of energy use, renewable energy, energy efficiency, and system integration in industrial processes, buildings, and energy systems.
Skills
The student can:
- develop, implement, and simulate models of multidomain systems using Modelica and relevant libraries.
- analyze and interpret simulation results to assess system performance and energy efficiency.
- design and optimize energy systems and processes with a focus on reducing energy use and improving sustainability.
- apply control strategies and perform dynamic simulations to study system behavior under varying operating conditions.
General Competence
The student:
- can use simulation as a tool for technological analysis, innovation, and decision-making in energy- and process-related applications.
- can communicate and document modeling and simulation work in a precise and professional manner.
- has insight into how system simulation can contribute to increased energy efficiency and reduced environmental impact.
- can participate in and contribute to interdisciplinary projects involving modeling and simulation of complex energy systems.
Learning methods and activities
The course consists of lectures, 5 exercises, and project work.
Students will work in groups of 3-4 persons on problem-solving tasks and project assignments. Each group will present their progress and findings through plenary presentations and written reports.
The lectures and exercises are conducted in English when the course includes students who do not speak Norwegian.
If the teaching is given in English, the examination papers will be provided in English only.
Students are free to choose Norwegian or English for all written assessments.
Compulsory assignments
- Exercises
Further on evaluation
Combined grade for the course:
Approved and evaluated compulsory exercises (portfolio evaluation) will give 40 % of the grade.
Project assignment will give 60 % of the grade.
Recommended previous knowledge
TEP4115/TEP4120 Thermodynamic 1, TEP4100 Fluid Mechanics, TKT4118 Mechanics 1 or similar subjects.
Course materials
A compendium will be made available through Canvas.
Credit reductions
| Course code | Reduction | From |
|---|---|---|
| SIO7040 | 7.5 sp | |
| TMR4275 | 3.7 sp | Autumn 2015 |
Subject areas
- Energy and Process Engineering
- Technological subjects