1. Course Title |
Power Electronics |
2. Code |
4ФЕИТ05З021 |
3. Study program |
КХИЕ |
4. Organizer of the study program (unit, institute, department) |
Faculty of Electrical Engineering and Information Technologies |
5. Degree (first, second, third cycle) |
First cycle |
6. Academic year/semester |
III/5 |
7. Number of ECTS credits |
6 |
8. Lecturer |
D-r Ljupcho Karadjinov |
9. Course Prerequisites |
|
10. Course Goals (acquired competencies): Gaining basic knowledge and understanding of the principles of operation of power semiconductor devices, power efficiency, topologies and parameters of four types of electric power conversion circuits. Acquiring competence and skills for analyzing the operation of power conversion electronic circuits, as well as solving practical application electronic circuit examples. |
11. Course Syllabus: Introduction to power electronics: converter classification, power electronics concepts, applications. Power semiconductor devices: PIN diodes, various types of semiconductor controlled rectifiers, power transistors and IGBT. Power computations: power and energy, active and reactive power, power efficiency, apparent power and power factor, total harmonic distortion, energy recovery. Uncontrolled diode rectifiers, half-wave, fill-wave, single and three phase, freewheeling diode. Controlled half- and full-wave rectifiers. AC voltage controllers. DC-DC converters: buck, boost, buck-boost, Cuk, converters in CCM mode. DC power supplies. Inverters: full-bridge, bipolar and unipolar PWM, square wave inverter, push-pull. SPICE simulations. |
12. Learning methods: Lectures supported by presentations, examples solving auditory exercises, practical laboratory exercises, preparation and presentation of individual project/seminar assignments, homework. |
13. Total number of course hours |
3 + 1 + 1 + 0 |
14. Distribution of course hours |
180 |
15. Forms of teaching |
15.1. Lectures-theoretical teaching |
45 |
15.2. Exercises (laboratory, practice classes), seminars, teamwork |
30 |
16. Other course activities |
16.1. Projects, seminar papers |
0 |
16.2. Individual tasks |
15 |
16.3. Homework and self-learning |
90 |
17. Grading |
17.1. Exams |
40 |
17.2. Seminar work/project (presentation: written and oral) |
10 |
17.3. Activity and participation |
10 |
17.4. Final exam |
40 |
18. Grading criteria (points) |
up to 50 points |
5 (five) (F) |
from 51to 60 points |
6 (six) (E) |
from 61to 70 points |
7 (seven) (D) |
from 71to 80 points |
8 (eight) (C) |
from 81to 90 points |
9 (nine) (B) |
from 91to 100 points |
10 (ten) (A) |
19. Conditions for acquiring teacher’s signature and for taking final exam |
Completed practical laboratory exercises and project assignments. |
20. Forms of assessment |
Examination comprises two midterm exams (max 120 min), tests during the classes, and a laboratory exercises test at the end of semester. After successful completion of these tests, an oral examination may be required (max 60 min). The final mark is based on the points collected from all mentioned tests and the class activity. When mid term exams are not successfully passed, they are replaced by a written exam (max 120 min) during the exam sessions, with other requirements and rules remaining the same. Use of textbooks, any other notes, mobile phones, or other electronic devices, except the calculator, are not allowed. |
21. Language |
Macedonian and English |
22. Method of monitoring of teaching quality |
Internal evaluations and surveys. |
23. Literature |
23.1. Required Literature |
No. |
Author |
Title |
Publisher |
Year |
1 |
Goce Arsocv |
Power Electronics |
FEEIT internal lectures papers |
2000 |
2 |
Daniel Hart |
Power Electronics |
McGraw-Hill |
2010 |
3 |
Mohan, Undeland, Robbins |
Power Electronics – converters, applications and design, 3rd edition |
Wiley |
2007 |
23.2. Additional Literature |
No. |
Author |
Title |
Publisher |
Year |
1 |
Muhammad H. Rashid |
Power Electronics: Circuits, Devices & Applications, 4th Edition |
Pearson |
2013 |
2 |
Muhammad H. Rashid |
Power Electronics Handbook, 4th edition |
Butterworth-Heinemann |
2017 |
3 |
Robert W. Erickson, Dragan Maksimović |
Fundamentals of Power Electronics, 3rd edition |
Springer |
2020 |