This course introduces the modeling and application of power electronic devices in power systems, including line-commutated converters (LCCs), static synchronous compensators (STATCOMs), and thyristor-controlled series capacitors (TCSCs). It examines their operating principles and their roles in controlling power flow, supporting voltage, and improving system stability and performance.
This course introduces the fundamental concepts of basic electrical engineering, including circuit analysis, electrical machines, and power systems. Students will gain essential knowledge and skills for understanding and working with electrical systems.
Understanding the operational characteristics, construction, performance, and control of synchronous machines. Insights of special machines: Switched reluctance machines, BLDC (brushless DC) machines, Synchronous reluctance machines, Permanent magnet Synchronous machines, and Stepper motors.
This course introduces the fundamental concepts of basic electrical engineering, including circuit analysis, electrical machines, and power systems. Students will gain essential knowledge and skills for understanding and working with electrical systems.
This course introduces analytical and computational methods for modeling generators, converters, transmission lines, and loads. The course emphasizes small-signal and transient stability, modal interactions, and control strategies to maintain the secure, reliable operation of modern power systems, including those dominated by power electronic converters.
This course covers network theorems, transient analysis of RLC circuits, two-port networks, Laplace transforms, and filter design. It develops analytical and problem-solving skills for understanding circuit behavior and applying mathematical techniques to the analysis and design of electrical networks.
This lab provides hands-on experience with electrical networks, focusing on analyzing and designing circuits. Students will experiment with various network theorems, methods, and real-world applications.
This lab focuses on experimenting with DC motor control and gaining hands-on experience in controller design. It covers various compensation techniques and methods for tuning controllers to achieve desired responses, and analyzes the impact of delays on real-time systems.