Aims and Fit of Module

This module provides students with a foundational introduction to nuclear reactor technology, focusing on its application in power production. It introduces key disciplines of reactor physics and thermal hydraulics, with specific application to the design of nuclear reactor systems for power production, explaining their integrated role in functional reactor operation. The module also equips students with essential knowledge of nuclear security and the core criteria governing its implementation, covering threat mitigation, compliance, and safety protocols. As a cornerstone of low-carbon energy, nuclear reactor technology is vital for careers in nuclear engineering, energy policy, power system design or environmental sustainability. Mastery of its foundational principles is therefore core for relevant career paths. This module serves as a critical technical foundation for advanced coursework and research: supporting deeper exploration of topics like reactor optimisation or fuel cycle management for taught students, and underpinning research into innovations for research-focused students. Aligned with international standards, it advances the university’s goal of fostering adaptable, industry-ready professionals for the global energy sector.

Learning outcomes

A. Critically evaluate nuclear-to-electric energy conversion systems, assessing the influence of reactor technology, safety paradigms, and economic viability on the overall performance and development of current and next-generation designs. B. Analyse the operational behaviour of nuclear power plants by applying fundamental reactor physics and engineering principles to both steady-state and dynamic scenarios. C. Formulate a critical assessment of nuclear power's sustainability by evaluating its alignment with environmental goals and energy policy objectives. D. Model and simulate the thermal-hydraulic performance of nuclear reactor cores using computational tools, and interpret the results to inform design and safety decisions. E. Manage nuclear energy project tasks effectively, demonstrating leadership, collaboration, and the ability to communicate complex technical concepts to diverse audiences.

Method of teaching and learning

This module uses an integrated approach, combining formal lectures and hands-on practical sessions to build students’ theoretical and practical understanding of nuclear reactor technology. Lectures introduce core concepts, including reactor principles, physics, thermal hydraulics, and security, with real-world examples and quick engagement prompts to keep students active. Practical sessions let students apply this knowledge to tasks, such as analysing reactor data or simulating design scenarios, with instructor guidance to correct misconceptions in real time and refine technical skills. Students receive regular formative feedback on technical reports, addressing accuracy and depth to help them track progress and align with learning outcomes. Additional support includes curated resources and weekly drop-in sessions for clarification.