This module introduces the learner to the dynamic behaviours and control mechanisms essential for power system networks. The course material is a mix of electrical engineering, system dynamics, and sustainable energy management. Students will examine the principles of synchronous machine dynamics, transformer control, and power electronics. The course covers the industry norms used for control strategies for various components, including synchronous machines, transformers, and induction machines, appreciating their dynamic and practical applications. A particular emphasis is given to the role of Flexible AC Transmission Systems (FACTS) and Voltage Source Converters (VSC) in modern power grids. This module will also encourage students to explore the technical and ethical implications of advanced control techniques in power systems, considering their broader impact on grid stability and renewable energy integration .

1. Critique the dynamic models and control mechanisms of synchronous machines, transformers, and power electronic devices, including their primary and secondary controls.
2. Evaluate and analyse control systems for high voltage transmission, including under-load tap-changers, phase shifters, and FACTS devices.
3. Apply theoretical knowledge to practical examples using numerical simulations, focusing on real-world power system scenarios.
4. Evaluate the control of distributed energy sources like wind turbines and photovoltaic panels, emphasising MPPT, voltage control, and frequency control.
5. Critically evaluate the ethical and sustainability implications of advanced control techniques in power systems, considering their broader impact on grid stability and renewable energy integration.