1. Course Title | Fundamentals of Convex Optimization with Applications | |||||||
2. Code | 4ФЕИТ08З012 | |||||||
3. Study program | NULL | |||||||
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 | 7. Number of ECTS credits | 6 | ||||||
8. Lecturer | D-r Katerina Hadji-Velkova Saneva, D-r Zoran Hadji-Velkov | |||||||
9. Course Prerequisites | Passed: Mathematics 1, Mathematics 2 | |||||||
10. Course Goals (acquired competencies): Introduction to the basic theory of convex optimization. Understanding and interpreting the basic concepts and tools of convex analysis and their application in mathematical optimization. Recognition and formalization of engineering problems as models for mathematical optimization. Solving convex optimization problems that appear in engineering. | ||||||||
11. Course Syllabus: Concept of mathematical optimization. Importance of convex optimization in electrical engineering and information technologies (examples). Convexity versus non-convexity. Convex functions. Convex sets. Unconstrained optimization. Linear programming. Lagrange multiplier method. Application of numerical methods for solving optimization problems. Gradient descent methods. Quadratic optimization. Least squares problem. Convex programming. Optimality conditions. Karush-Kuhn-Tucker conditions. Dual problem. Interior point method. Software tools for optimization. Machine learning for optimization. Modeling and solving optimization problems in electrical engineering and information technologies. | ||||||||
12. Learning methods: Classic lectures supported by solving practical exercises and computation problems, homeworks. | ||||||||
13. Total number of course hours | 3 + 2 + 0 + 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 | 35 | ||||||
16.2. Individual tasks | 20 | |||||||
16.3. Homework and self-learning | 50 | |||||||
17. Grading | 17.1. Exams | 0 | ||||||
17.2. Seminar work/project (presentation: written and oral) | 40 | |||||||
17.3. Activity and participation | 10 | |||||||
17.4. Final exam | 50 | |||||||
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 | Аttend classes regularly | |||||||
20. Forms of assessment | During the semester, two partial written exams are foreseen (at the middle and at the end of the semester). For students who have passed the partial exams, a final oral exam can be conducted. The final grade includes the points from the partial exams, the points from the individual student work (homeworks), and the final oral exam. Students who take one written exam instead of two partial exams can take it in the scheduled exam sessions. For the student who has passed the written exam, a final oral exam can be conducted. The final grade includes the points from the written exam, the points from the individual student work (homeworks), and the final oral exam. |
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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 | S. Slobec, J. Petric | Nelinearno programiranje | Naucna knjiga | 1989 | ||||
2 | D.G. Luenberger и Y. Ye | Linear and Nonlinear Programming (fourth ed.) | Springer, Cham | 2016 | ||||
3 | S. Boyd и L. Vandenberghe | Convex optimization | Cambridge university press | 2004 |