1. Course Title |
Photovoltaic Systems |
2. Code |
4ФЕИТ04Л025 |
3. Study program |
ЕАОИЕ,ЕЕПМ |
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/6 |
7. Number of ECTS credits |
6 |
8. Lecturer |
D-r Dimitar Dimitrov |
9. Course Prerequisites |
Passed: Fundamentals of Electric Circuits |
10. Course Goals (acquired competencies): Obtaining knowledge about PV systems’ operation. Getting ability for identification of cost-effective PV systems application. Competence for adequate choice of locations and components of PV systems. Acquainting with methods analyzing and sizing of PV systems. |
11. Course Syllabus: Introduction, application and types of photovoltaic (PV) systems. Characteristics and components of the solar radiation. Meteo databases. Photovoltaic conversion processes in solar cells. Current-voltage characteristics of solar cells and temperature influence. Types of PV cells and their characteristics. Components of a PV generator. Balance-of-system components. Stand-alone PV systems. Hybrid PV systems. Grid-connected PV systems. Component connections and topologies. Mounting structures and choosing adequate location for installing a PV system. Techno-economic analyses of PV systems. Methods for sizing of PV systems. |
12. Learning methods: Lectures with presentations, interactive lectures, numerical and simulation exercises, homeworks and student projects. |
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 |
30 |
16.2. Individual tasks |
30 |
16.3. Homework and self-learning |
45 |
17. Grading |
17.1. Exams |
0 |
17.2. Seminar work/project (presentation: written and oral) |
35 |
17.3. Activity and participation |
10 |
17.4. Final exam |
55 |
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 |
Lectures with presentations, interactive lectures, numerical exercises, laboratory exercises, study visits. |
20. Forms of assessment |
During the semester, two partial written 120 minutes exams or a written 120 minutes exam are forseen. For students who have passed the partial exams or the exam, a final oral exam (duration 60 minutes) may be conducted. The points from the partial exams or the exam and the final oral exam are included into the final grade. |
21. Language |
Macedonian and English |
22. Method of monitoring of teaching quality |
Internal evaluation and surveys. |
23. Literature |
23.1. Required Literature |
No. |
Author |
Title |
Publisher |
Year |
1 |
DGS/Berlin |
Planning and Installing Photovoltaic Systems |
DGS/Berlin |
2008 |
2 |
Heinrich Häberlin |
Photovoltaics System Design and Practice |
John Wiley & Sons Ltd. |
2012 |
3 |
Tamer Khatib, Wilfried Elmenreich |
Photovoltaic Solar Energy Generation Using MATLAB® |
John Wiley & Sons Ltd. |
2016 |
23.2. Additional Literature |
No. |
Author |
Title |
Publisher |
Year |
1 |
B. K. Hodge |
Alternative Energy Systems and Applications |
John Wiley & Sons Ltd. |
2013 |
2 |
Christiana Honsberg, Stuart Bowden |
www.pveducation.org |
Arizona State University |
2021 |
3 |
T. Markvart |
Solar Electricity |
John Wiley & Sons Ltd. |
1994 |