The South West Nuclear Hub structures its research under the following themes:

1. Nuclear Materials and Modelling

This theme aims to develop a fundamental understanding of the inter-relationship between material 'microstructure', nano- to micro-scale, for nuclear materials and their physical, chemical and mechanical properties under extreme environmental conditions , including neutron irradiation.

2. Systems Reliability

  • Software Reliability

Theoretical research: bounds on failure probabilities for computation.

Practical application: risk analysis for critical software systems

  • Organisational Safety

Theoretical research: modelling the dynamics of socio-technical systems in large organisations.

Practical application: early recognition of precursors to large industry accidents, enabling interventions to be put in place.

3. Structural Integrity

The investigation of the behaviour of materials and structures across multiple length scales, in both ‘normal’ and ‘aggressive’ environments.

Research covers a number of engineering topic areas including:

  • advanced structural integrity;
  • joining and forming;
  • residual stress measurement;
  • fracture mechanics.

4. Nuclear Hazards and Risks

Research seeks to directly influence decision-making in the nuclear industry on matters of:

  • use of nuclear deterrents;
  • nuclear proliferation and forensics;
  • external hazards to nuclear installations and infrastructure from floods, climate and seismic and volcanic activity at a wide range of temporal and spatial scales;
  • systems safety;
  • radiological hazards associated with contaminated land.

5. New Materials Development


6. Waste and Fuel Management

A core part of the nuclear decommissioning process concerns the safe disposal and management of used fuel and waste products. Research areas include:

  • waste disposal and effluent management;
  • nuclear material management;
  • environmental remediation of radionuclides and microstructural analysis of crystalline solids;
  • decommissioning/decontamination of reactors;
  • new fuel development.

7. Structural Engineering

Structural Engineering addresses the understanding of the fundamentals of how structures behave to be able to develop more reliable methods of analysis and design. This area includes:

  • Testing and modelling in the field of control;
  • seismic analysis;
  • structural dynamics and non-linear engineering;
  • earthquake engineering.

8. Monitoring

Radioactive materials are highly controlled, and also difficult to detect by sight. Therefore there is a need to develop scanning and detection methods to be able to identify materials.

A very promising technique for scanning is cosmic ray tomography (CRT). This is because cosmic muons are highly penetrating and are naturally occurring. This means that it is impossible to screen against and it introduces no above-background radiation.

This can be applied to border-control situations where nuclear devices are suspected, or for measuring the contents of nuclear waste silos using cosmic rays to detect which materials are where in the silos.

9. Robotics

Due to the hazardous nature of some nuclear materials, it is sometimes difficult and time-consuming for human workers to carry out certain tasks. It is therefore safer and more efficient to use robots.  Challenges include:

  •  hardware and software aspects of robotics;
  • sensing;
  • cooperation;
  • control and actuation.

10. Digital Innovation