This module is designed to offer a comprehensive understanding of the power system industry, focusing on essential aspects, challenges, and key technologies that underpin the industry's operation, protection, and control capabilities. It aims to equip participants with a well-rounded knowledge of the industry's structure, highlighting significant growth trends and essential calculations that are vital for effective power system management, including the integration of renewable energy.

Development of a solid theoretical foundation combined with practical problem-solving skills
Preparation to contribute effectively to the evolving landscape of power systems
Protection design fundamentals for power system reliability and safety
Analysis of fault scenarios with skills to address them effectively
In-depth study of Power System Stability, covering both steady-state and transient stability
Examination of system dynamics, load behaviour, and the impact of disturbances on performance
Hands-on experience using simulations and modelling to assess stability under various operating conditions
Analysis of future challenges, including increasing renewable energy integration
Exploration of smart grid technologies and advancements in protection, control, and telecommunications
Discussion of innovative approaches to operation and control using emerging technologies to enhance resilience and efficiency
Engagement with regulatory frameworks, market dynamics, and the role of policy in the power system industry

1. A group report which encompasses research and laboratory-based work. Meeting AHEP 4 outcome M3, M4, M5 and M16.

2. An exam requiring you to answer questions on power systems. Meeting AHEP 4 outcome M1, M2, M3.

This module is taught over one semester with a mixture of taught lectures, tutorials, and laboratory sessions, supported by independent student learning, research, guided reading, and on-line webcasts/videos.

Problem-Based Learning: Learn to solve complex engineering problems related to power systems to encourage critical thinking and independent learning.
Tutorials/Laboratories: Provide a comprehensive understanding of modern power systems.
Independent study: (including reading, literature surveys, and coursework preparation)

1. Demonstrate a systematic understanding of the key non-electrical power systems. (AHEP4: M1, M2)

Knowledge & Understanding

2. Apply appropriate computational and analytical techniques to solve complex problematic design and non-electrical power systems. (AHEP4: M2, M3)

Application & Problem-Solving

3. Formulate complex scenarios related to electrical power systems and assess their performance using laboratory experimentalist-based simulations. (AHEP4: M3, M4, M5)

Digital Literacy

4. Work effectively within a group to critically evaluate the latest research and analytical techniques to solve challenges related to the operation, stability and control of power systems. (AHEP4: M4, M5, M16)

Critical Reasoning & Collaboration
Research Skills

High voltage lab
Software packages (e.g. PSCAD/EMTDC MATLAB SIMULINK)
Computing facilities

Overbye, T.J. and Birchfield, A.B. (2021) Power System Analysis and Design. 7th edn. Boston: Cengage.

Power System Analysis (2024) Springer Nature Switzerland.

Das, J.C. (2020) Power System Optimization. Boca Raton: CRC Press.

Kamran, M. (2022). Fundamentals of Smart Grid Systems, Academic Press, Elsevier

Borlase, S. (Ed.). (2017). Smart Grids: Advanced Technologies and Solutions (2nd ed.). CRC Press. (This is the most recent prominent text in this area)

Tomar, A., & Kandasamy, P. (Eds.). (2021). Advances in Smart Grid Power System: Network, Control and Security, Academic Press. Elsevier

Unlock your potential in the power system industry with our comprehensive module designed to enhance your understanding of essential operations, challenges, and key technologies.Explore critical topics such as protection design, power system stability, and the integration of renewable energy. Through real-world case studies and hands-on simulations,you'll gain practical skills to address industry challenges effectively. You will explore future innovations, regulatory frameworks, and market dynamics as you prepare to contribute to the evolving landscape of power systems. Empower your career and embrace the future of energy management.