Advanced topics in load flow analysis, fast decoupled load flow, DC model. Parameter estimation for power systems. Dispatching analysis. Load modelling. Networks calculations. Numerical methods with large sparse matrices. Computer methods in Power systems supervision. Load flow program design. Short Circuit program design.

Student will gain advanced knowledge of electric power system analysis as well as gain experience with power system models and analysis software.

1. describe the procedure of determining the state vector of electrical power system
2. explain mathematical procedures of power flow and short circuit calculation
3. apply the state vector of electrical power system
4. analyze electrical circumstances in the electric power system
5. plan the power system operation
6. estimate the power system security

Lectures

Lectrures are given with the use of powerpoint presentations published on the web pages. The lectures are organized through 2 cycles. The first cycle consists of 7 weeks of lectures and 1st midter. Second cycle has 6 weeks of lectures and final exam. The lectures are given in total of 13 weeks, two hours per week.

Exams

midterm, final exam and oral exam

Laboratory Work

6 laboratory exercises

Consultations

Consultation term is determined on the first lecture in agreement with the students.

Structural Exercises

design and comparison of differnt power-flow solution methods

Other

homeworks

1. Advanced topics in load flow analysis.
2. Decoupled load flow.
3. Fast decoupled load flow.
4. Simplified models, DC model.
5. Parameter estimation for power systems.
6. Load modelling.
7. Networks calculations.
8. Numerical methods with large sparse matrices.
9. Symmetrical linear system solvers.
10. Dispatching analysis.
11. Computer methods in Power systems supervision.
12. Data supervision and acquisition.
13. Real time network modelling.
14. Load flow program design.
15. Short Circuit program design.