1. analyse and model network components
2. create a network model for power flow calculations and fault analysis
3. identify and determine network matrices, as well as values of admittance and impedance matrices
4. apply numerical iterative methods for power flow calculations
5. calculate the state vector of an electric power system
6. select appropriate power flow methods depending on network conditions
7. calculate fault currents for different short-circuit types
8. select appropriate short-circuit calculation methods based on fault type and network conditions
9. analyse electric power system state and parameters

Lectures take place in a lecture room with a lecturer who is an expert on a specific subject. The lecture is interactive, and students are expected to participate in the discussion.

Students work on two projects during the semester.

Recitations include solving practical tasks and discussing solving procedures.

Laboratory exercises are held in labs equipped with computers. During the exercise, students try out theoretical concepts and apply them to specific problems.

1. Superposition, compensation, Thevening, Norton, Millman, node elimination, reciprocity
2. Simetrical components, The Per-Unit quantities
3. Network model of transmission lines, Network models of transformers with nominal and off-nominal ratios
4. Network models of phase-shifting transformers, Load and generator models
5. Incidence (connection) matrix, Network topology representation and modelling, Y matrix, Z matrix, Scarce matrix algebra for power systems calculations
6. Node clasification, Mathematical formulation of power flow
7. Gauss-Seidel with Y matix, Gauss-Seidel with Z matix
8. Midterm exam
9. Newton-Raphson method, Advanced power flow calculation based on accelerated Newton-Raphson method
10. Simplified power flow (DC model of AC grid), DC system model, Power flow on HVDC network, Power flow in low woltage grid
11. Short circuit currents importance, Clasical method (reduced impedance and per unit method), Matrix method, 3 phase short circuit
12. 2 phase and 2 phase with ground short circuit, 1 phase short circuit, Peak current, thermal current, breaking current
13. On-line and off line fault analysis, Limitation of short circuit currents, Influence of neutral earthing
14. Mathematical techniques for improving the load flow algorithms, Three-phase load flow calculation, AC-DC load flow
15. Final exam