You will gain expert knowledge in the following areas:

• Systems for ensuring the supply of electricity,
• Requirements for power quality, EMC of devices and industrial systems,
• Use and consumption of electrical energy,
• Applications of electric machines and power electronic systems,
• Basics of electrothermal and lighting technology,
• The impact of electrical equipment on the power grid,
• Principles of minimizing negative effects.

By studying electromagnetic systems for energy conversion (as part of the specialization Electric Machines), you will also gain expertise in:

• New principles, materials, and technologies for manufacturing modern electric machines and their structural configurations,
• Cooling methods and heat dissipation,
• Modern approaches to electromagnetic, thermal, and mechanical design,
• Simulation and modeling of operational parameters of modern electric machines for various load conditions.

Thanks to the broad range of acquired knowledge and practical skills, you will be well-equipped for a dynamic career in the energy sector and related technical fields. The demand for specialists in power electronics is enormous, and you can find opportunities as, for example:

• Electric Machine Designer – Responsible for designing and developing new electric machines using modern principles, materials, and technologies.
• Power Engineering Project Engineer – Works on projects focused on ensuring quality electricity supply, including EMC aspects of devices and industrial systems.
• Power Electronics Specialist – Focuses on the application and integration of power electronic systems in various industrial sectors.
• Power Quality Engineer – Monitors and ensures power quality requirements and minimizes negative impacts on power grids.
• Electrical Equipment Cooling Technologist – Specializes in cooling methods and heat dissipation for modern electric machines.
• Simulation and Modeling Engineer – Uses advanced simulation and modeling to predict the operational parameters of electric machines under various load conditions.

Additionally, graduates will find roles as team leaders, project managers, and R&D experts both domestically and internationally.

Compulsory courses

• Design elements of electric machines (4 kr., Ex)
• Drives and power electronics 2 (5 kr., Ex)
• Electrical machines 2 (4 kr., Ex)
• Electrotechnical qualification (1 kr., Cr)
• Introduction to Transport Engineering (2 kr., Cr)
• Materials and technologies for el. eng. (4 kr., Ex)
• Theory of Electric Machines 2 (5 kr., Ex)
• Windings of Electric Machines (4 kr., Cr)

Compulsory courses

• Design of Electric Machines 1 (5 kr., Ex)
• Electric Drives of Vehicles (4 kr., Ex)
• English for Electrical Engineering 6 (2 kr., Cr)
• Measurement and testing of el. machines (4 kr., Ex)
• Modeling and simulation of el.machines 1 (3 kr., Cr)
• Modeling of multi-physical problems (4 kr., Ex)
• Transmission and distribution grids (5 kr., Ex)
• Semester Project 1 - ES (3 kr., Cr)

Compulsory courses

• Application of Superconductivity in EE (3 kr., Ex)
• Design of electrical machines 2 (5 kr., Ex)
• Electromagnetic Compatibility (4 kr., Ex)
• Modeling and Simulation of El.Machines 2 (3 kr., Cr)
• Renewable energy sources (4 kr., Ex)
• Selected Topics in Electrical Machines (4 kr., Ex)
• Sensors and measuring instrumentation (4 kr., Cr)
• Semester Project 2 - ES (3 kr., Cr)

Compulsory courses

• Control Systems (3 kr., Cr)
• Copyright and Industrial Law (2 kr., Zk)
• Design of Power Systems (2 kr., Cr)
• Operations Management in El.Eng.Industry (2 kr., Cr)
• Power and Traction Systems (4 kr., Ex)
• Selected topics in el. heat and light (4 kr., Ex)
• Diploma Thesis (8 kr., Cr)