Abstract:

The global expansion of fusion energy programmes in recent years has created an urgent need for a highly skilled workforce spanning plasma physics, engineering, and advanced computational methods. As fusion activities progress from fundamental research toward device operation, industrialisation, and long-term deployment, education and training pathways must scale in both size and scope. In response, Imperial College London (ICL) has developed a dedicated MSc Physics with Fusion and Plasma Physics, alongside a coordinated effort to expand its PhD student cohort in magnetic confinement fusion. This contribution presents the rationale, development process, and early outcomes of these initiatives, with a focus on methodologies that are transferable to other national and institutional initiatives.

The MSc programme was developed through a structured stakeholder engagement process involving the Department of Physics, national laboratories, industry partners, and policymakers connected to UK, European, and international fusion programmes. Skills needs were identified through targeted consultations, curriculum mapping against existing postgraduate physics and fusion degrees, and alignment with national fusion roadmaps and international priorities. This process informed the design of a curriculum that integrates core and advanced plasma and fusion physics, with applied training in diagnostics, computational methods, mathematics and statistics, and research-led projects. Flexibility has been retained to accommodate students from diverse mathematical sciences and engineering academic backgrounds and to enable entry points aligned with evolving workforce requirements. In parallel, ICL has expanded its PhD programme in magnetic confinement fusion by strengthening links between taught postgraduate education, international research laboratories, the emerging fusion industry, and externally funded research programmes.

Formal agreements are now in place between ICL and leading fusion facilities and organisations, including the Max Planck Institute for Plasma Physics (IPP), the DIII-D National Fusion Facility, and the UK Atomic Energy Authority (UKAEA). These partnerships support co-supervised doctoral research projects, student secondments, and the delivery of guest lectures and specialist training, enhancing both the depth and international relevance of the postgraduate programmes.

Mechanisms such as MSc-to-PhD transition pathways, co-supervision across institutions, and targeted recruitment aligned with major experimental and modelling efforts have been implemented to support cohort growth and continuity. Knowledge management and sharing considerations are embedded across both MSc and PhD activities, including mentoring and pastoral structures, and approaches to retaining and transferring expertise across long-timescale research projects.

While the initiatives described are specific to Imperial College London, the emphasis is placed on the methodology used to design, launch, and scale fusion and plasma physics education programmes. This experience provides practical insights for national programmes seeking to establish or expand fusion education pipelines that are aligned with national strategies and research laboratories, responsive to industry needs, and resilient over the long development timelines required to support fusion energy as a meaningful contributor to net-zero energy systems and a sustainable society.

Keywords:

Education, Postgraduate education, Net-zero, Energy, Sustainable energy source, fusion energy, Net-zero.