Teaching language: English
Open for exchange students
Block schedule:
D
Course module 

Credit distribution 

Examination dates 
Sp1 
Sp2 
Sp3 
Sp4 
Summer course 
No Sp 
0108 
Project 
7,5 c 
Grading: TH 

7,5 c








In programs
MPEPO ELECTRIC POWER ENGINEERING, MSC PROGR, Year 2 (compulsory elective)
Examiner:
Bitr professor
Yuriy Serdyuk
Replaces
EEK220
Applied computational electromagnetics
Course evaluation:
http://document.chalmers.se/doc/943376da12834d43ad862379ea79b32b
Go to Course Homepage
Eligibility:
For single subject courses within Chalmers programmes the same eligibility requirements apply, as to the programme(s) that the course is part of.
Course specific prerequisites
Basic knowledge on linear algebra, integral calculus, field theory.
Aim
The course is an advanced course offered for undergraduate students following master programs in electric power engineering, electromagnetics, material science as well as for postgraduate students within Graduate School in High Voltage Engineering and other programs dealing with different kinds of fields and their interactions with materials.
The course aims to introduce students to fundamental concepts of low frequency electromagnetics with examples from electrical power engineering, to give basic knowledge on numerical techniques and computer software for field calculations. The course focuses on developing practical skills in using computational tools and analyzing results of computer simulations. Essential part of the course is devoted to solving a set of electric, magnetic, thermal and coupled (multiphysics) problems related to different power frequency applications using commercial finiteelement software.
After successive completion of the course, the student is prepared to solve electric, magnetic, thermal and coupled field problems appearing in practical applications related to high voltage engineering and technologies, power electronics, electrical drives and machines, materials science, etc.
Learning outcomes (after completion of the course the student should be able to)
 demonstrate understanding of the concepts of electric, magnetic and thermal fields;
 formulate electrostatic field problems and solve them on a computer using finiteelement software;
 formulate magnetostatic field problems and solve them on a computer using finiteelement software;
 formulate static and dynamic heat transfer problems and solve them on a computer using finiteelement software;
 identify couplings between different kinds of fields, formulate corresponding problems and solve them using finiteelement software;
 analyse design (geometry, materials, etc.) of equipment from the point of view of field conditions;
 identify locations in the equipment where field optimization/modification is required;
 propose a strategy for computer modelling and simulations of the identified problem;
 illustrate (visualize) results of the computer simulations performed in different space dimensions (1D, 2D, 3D) and for timedependent problems;
 interpret and judge results of the computations;
 propose ways for improved design supported by computer simulations.
Content
The course is composed of lectures, computer exercises, assignments, seminar and project work.
The lectures and computer exercices focus on:
 introduction: Maxwell's equations (integral and differential forms, time and frequency domains); decoupling of electric and magnetic fields.
 electrostatics: electrostatic potential; electrostatic fields; Poisson's and Laplace's equations; boundary conditions; polarization; capacitance; electrical forces.
 magnetostatics: magnetic flux; magnetic scalar and vector potentials; equations for magnetostatic fields; boundary conditions; self and mutual inductance; magnetic forces.
 thermal fields: mechanisms of heat transfer and related equations; heat conduction; boundary conditions; mathematical similarity of equations for electrical, magnetic and thermal fields.
 numerical methods: introduction to finite differences, finite volumes, boundary elements and finite elements.
 software: introduction to COMSOL Multiphysics environment, GUI, setting up a problem, drawing geometry, assigning material properties and boundary conditions, meshing, choosing appropriate solver (linear, nonlinear, parametric, etc.), postprocessing, solving coupled problems.
The seminar: knowledge on electric/magnetic/thermal fields and numerical methods for solving field problems received in the lectures are further developed during the seminar. Groups of students are expected to work out approaches for solving given problems and to present them to other students.
Assignments: four assignments related to electric, magnetic, thermal calculations and coupled problems, respectively, are included in the course.
Project work: a subject of the project work is chosen for each group of students individually. Students are welcome to bring their own topics for the project, which should be discussed with the examiner and will be accepted if they meet the goals of the course.
Organisation
The course comprises 6 lectures, 10 computer exercises, 1 seminar, 4 computer assignments and 3 class meetings devoted to the course projects. The assignments and project task are to be solved outside the class and are to be reported before corresponding deadlines.
Literature
Main course materials will be distributed during lectures. However, students are advised and are expected to read relevant chapters in the textbooks:
D. Fleisch "A student's guide to Maxwell's equations", Cambridge, Cambridge University Press, 2008, ISBN 9780511390609 (electronic version available)
J. R. Claycomb "Applied electromagnetic using QuickField and Matlab", Infinity Science Press, 2008, ISBN 9781934015124 (electronic version available)
D. K. Cheng "Field and wave electromagnetics", second edition, AddisonWesley Publishing, 1989, ISBN 0201128195.
Examination
A successful student should fulfil the following requirements:
 take part in the seminar and contribute to development and presentation of one of the seminar topics,
 complete the assignments and submit reports on each assignment,
 complete a project work, submit a written report and orally present the results,
 act as an opponent for one of the project work presentations and submit corresponding reviewer report.
The grading system is based on the following criteria (in % of the final grade):
 participating in the seminar  max. 15%,
 each approved assignment  10% (max. 4 x 10=40%),
 documented and presented project work  max. 30%,
 reviewing others' work  max. 15%.
Possible grades are: "failed", "3"  7180%, "4"  8190%, "5"  91100%.