Achieving a level of knowledge to master industrial power system and autonomous operation. Capability of solving complex problems related of an industrial plant.

1. Define industrial power systems
2. Classify system’s components
3. Analyze and construct mathematical models of components and systems
4. Identify mathematical models’ parameters
5. Analyze industrial system’s transient states
6. Analyze simulation results and compare them with measured results
7. Create on simplification of a system, construct different mathematical models

Lectures are divided into two parts: first cycle has 7 and second has 6 lectures.

There is one mid exam and 3 short exams

Problem solving exercises are divided into two cycles: first cycle has 2 and second has 2 exercises.

Possible after each lecture and exercises

Group work on specific topics

Learning at home for preliminary exams

1. Introduction to industrial power systems. Structure and configuration, types, voltage levels
2. Components of powering system: transformers, motors, power electronic converters, harmonic filters, devices for reactive power compensation, switching devices
3. Concept of power system dynamics modeling and simulation
4. Mathematical models of one and multi machine drive
5. Active and passive power system harmonic filters
6. Power system modeling based on harmonics and filter characteristics
7. Reactive power compensation system (active and passive devices). Operation in power system transients.
8. Mid exam.
9. Cogeneration plants
10. Diesel aggregates
11. Voltage control in industrial plants
12. Mutual operation of power system and powering from industrial plant when load suddenly changes and faults
13. Uninterruptable power supply
14. Over-voltages in industrial systems during power switching, fault shutdowns, asynchronous system operation, transformers and chokes shutdowns
15. Final exam