The UK lacks the laboratory space and instruments needed to safely handle and analyse radioactive environmental samples—RADER will build them. This matters because nuclear decommissioning, waste disposal, and site clean-up all depend on understanding how radioactive materials behave in real-world conditions. Researchers currently cannot easily access the equipment needed to measure radionuclides in contaminated soil, pond sludge, or groundwater, or to prepare those samples without risk. Without that capability, the models used to predict long-term waste behaviour and to design remediation strategies rest on incomplete data. RADER will create a suite of dedicated laboratories where scientists can manipulate radioactive samples under controlled conditions and characterise them using radiometric, solution, and solids analysis. The facility will also link to atomic-scale techniques such as electron microscopy and X-ray absorption spectroscopy, allowing seamless analysis from the atomic to the bulk scale. This will enable work on effluent treatment in spent nuclear fuel ponds, radionuclide transport in contaminated ground over decades, and mobility in deep geological disposal environments. If successful, RADER will underpin UK efforts in radioactive waste management and environmental remediation at a critical time, providing the fundamental understanding needed to make decommissioning safer, cheaper, and more effective.
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The ability to handle and characterise complex environmental samples which are radioactive lies at the heart of nuclear decommissioning and radioactive waste management research yet there is a paucity of such facilities in the UK. Central to the study of these materials is the ability to access a range of instruments to allow characterisation of their radiological and environmental characteristics across a wide range of techniques including radiometric, solution and solids analysis. In addition, facilities which allow radioactive sample manipulation under controlled conditions, and radioactive sample preparation for optimal sample analysis are core to enabling high quality research. In the NNUF2 facility RADER, we will enable environmental radioactivity research by creating a suite of laboratories dedicated to radioactive sample handling and environmental analysis. Notably, the dedicated characterisation instrumentation in RADER will be able to accept materials with a range of radionuclides. This unique facility will allow straightforward access to analyses which are currently unavailable in the UK community for radioactive samples. RADER will also work with other NNUF2 user capabilities to analyse radioactive, environmental samples at the atomic scale (using electron microscopy and X-ray absorption spectroscopy techniques) and to allow e.g. irradiation of samples in the study of the impacts of radiation chemistry on radionuclide speciation and fate. In combination with the RADER capabilities, this will allow seamless analysis of complex environmental samples from the atomic, through the microscopic and bulk structure, essential if we are to build robust mechanistic understanding of radionuclide behaviour in engineered and natural environments to underpin radioactive waste management and environmental remediation research. RADER will enable environmental radioactivity research from model experimental systems focussed on understanding the fundamental mechanisms of effluent treatment and microbial interactions in high hazard spent nuclear fuel ponds, through contaminated site studies focussed on understanding transport of radionuclides in the shallow sub-surface over decadal timescales, and including work on radionuclide mobility in the subsurface relating to deep geological disposal of higher activity radioactive wastes. It will also enable us to work with authentic, radioactive site materials and samples to further understand long term speciation and fate in engineered and natural environments. The research outputs from this new world class capability will underpin national efforts in radioactive waste disposal and environmental remediation at a critical time.
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