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Electrical power engineering (5 cr)

Code: TE00CH01-3004

General information


Enrollment
02.08.2025 - 31.08.2025
Registration for introductions has not started yet. Registration starts :startDate
Timing
01.09.2025 - 19.12.2025
The implementation has not yet started.
Number of ECTS credits allocated
5 cr
Local portion
5 cr
Mode of delivery
Contact learning
Unit
Engineering and Business
Campus
Kupittaa Campus
Teaching languages
English
Degree programmes
Degree Programme in Energy and Environmental Engineering
Teachers
Dominique Roggo
Teacher in charge
Dominique Roggo
Groups
PENERS24
Energy and Environmental Engineering, S24
PENERS23
Energy and Environmental Engineering, S23
Course
TE00CH01

Realization has 16 reservations. Total duration of reservations is 39 h 30 min.

Time Topic Location
Wed 17.09.2025 time 10:00 - 12:00
(2 h 0 min)
Electrical power engineering TE00CH01-3004
ICT_C2032 Teoriatila muunto
Wed 24.09.2025 time 12:00 - 14:00
(2 h 0 min)
Electrical power engineering TE00CH01-3004
EDU_1089 Maskulin esitystila byod
Tue 30.09.2025 time 08:00 - 10:00
(2 h 0 min)
Electrical power engineering TE00CH01-3004
EDU_1089 Maskulin esitystila byod
Tue 07.10.2025 time 12:00 - 14:00
(2 h 0 min)
Electrical power engineering TE00CH01-3004
ICT_B2043 Teoriatila / kuvallisen ilmaisun tila
Tue 21.10.2025 time 12:00 - 14:00
(2 h 0 min)
Electrical power engineering TE00CH01-3004
EDU_2067 Oppimistila avo muunto byod
Fri 24.10.2025 time 16:00 - 19:30
(3 h 30 min)
Wind Power Systems TE00BX17-3005
EDU_K1037_LN_harj Sähkötekniikan laboratorio - LN harjoituspisteet
Tue 28.10.2025 time 14:00 - 16:00
(2 h 0 min)
Electrical power engineering TE00CH01-3004
EDU_3001 Kaarle muunto byod
Fri 31.10.2025 time 17:00 - 20:30
(3 h 30 min)
Wind Power Systems TE00BX17-3005
EDU_K1037_LN_harj Sähkötekniikan laboratorio - LN harjoituspisteet
Tue 04.11.2025 time 14:00 - 16:00
(2 h 0 min)
Electrical power engineering TE00CH01-3004
ICT_C3043 Teoriatila muunto
Fri 07.11.2025 time 16:00 - 19:30
(3 h 30 min)
Wind Power Systems TE00BX17-3005
EDU_K1037_LN_harj Sähkötekniikan laboratorio - LN harjoituspisteet
Tue 11.11.2025 time 12:00 - 15:30
(3 h 30 min)
Wind Power Systems TE00BX17-3005
EDU_K1037_LN_harj Sähkötekniikan laboratorio - LN harjoituspisteet
Wed 12.11.2025 time 16:00 - 18:00
(2 h 0 min)
Electrical power engineering TE00CH01-3004
ICT_C2032 Teoriatila muunto
Tue 18.11.2025 time 14:00 - 16:00
(2 h 0 min)
Electrical power engineering TE00CH01-3004
ICT_C2032 Teoriatila muunto
Fri 21.11.2025 time 15:30 - 19:00
(3 h 30 min)
Wind Power Systems TE00BX17-3005
EDU_K1037_LN_harj Sähkötekniikan laboratorio - LN harjoituspisteet
Tue 25.11.2025 time 08:00 - 10:00
(2 h 0 min)
Electrical power engineering TE00CH01-3004
ICT_C2025 Kieliluokka
Tue 02.12.2025 time 12:00 - 14:00
(2 h 0 min)
Electrical power engineering TE00CH01-3004
EDU_1089 Maskulin esitystila byod
Changes to reservations may be possible.

Evaluation scale

H-5

Content scheduling

Course content:
- a review of the basic quantities and laws of electricity
- analysis of direct and alternating current circuits.
- calculating the numerator of AC circuits.
- electrical energy distribution systems
- types of faults in electrical systems
- power system structure
- power system sizing
- Power system measurements (laboratory work)
- International standards for Power Quality in distribution systems (Lab work)

Objective

Objective is to create sufficient basis for power system studies. After completing the course, the student:

Can analyze DC and AC circuits as well as analytically solve related quantities (voltage, current, power, energy).

Can interpret phasors and use them to solve simple AC circuits.

Is familiar with the most common earthing systems as well as their typical fault types.

Can describe the structure of distribution network and make the dimensioning of AC and DC systems in basic cases.

Is familiar with measurements in power systems

Content

Analysis of DC and AC circuits

Phasors in AC circuit analysis

Earthing systems

Electrical system fault types

Power system structure

Power system dimensioning

Power system measurements (laboratory exercise)

Materials

The learning material is mainly collected in the form of presentation of slides and some reference to publications or litterature.
The User's guide and tutorials are used to learn how the simulation softwares work.
The learning material is collected on the Itslearning pages of the course.

Teaching methods

Lectures in presence
Calculations exercises
Computer simulations
Group work
Laboratory work

Exam schedules

Will be announced at the beginning of the course

Student workload

10 to 11 lectures of 2 hours in presence (ca 20h)
Laboratory exercises (ca 6h)
Studying, calculation exercises and simulation exercices to be realised as homework, reporting the lab exercises (ca 6h/week X 14 weeks)

Evaluation methods and criteria

Returnable exercises and final exam.
The assessment criteria are described in more detail in the course starter and on the Itslearning platform.

Failed (0)

The student is not familiar with the main concepts of DC and AC circuits.
The student is not familiar with the fault types in the power system.
The student is not able to describe the structure of the power system and is not familiar with the main components of the power system.

Assessment criteria, satisfactory (1-2)

The student knows the main quantities and concepts related to DC and AC circuits.
The student knows the main types of faults in electrical systems.
The student can describe the structure and main components of an electrical power system.

Assessment criteria, good (3-4)

The student will be able to analyse the operation of DC and AC circuits in common cases.
The student knows the main types of faults in power systems and can describe the related protection methods.
The student will know the main components of an electrical power system and be able to dimension them.

Assessment criteria, excellent (5)

The student can analyse the operation of DC and AC circuits in more challenging cases.
The student will know the types of faults in power systems and be able to calculate the magnitude of fault currents and set protective devices.
The student will be able to design electrical power systems in a basic case.

Qualifications

- Sähkötekniikan perusteet, Sähköfysiikka

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