RADER

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PI: Prof Kath Morris / Prof Jon Lloyd
The NNUF RADioactive waste management and Environmental Remediation (RADER) user facility will support research into characterising and understanding the behaviour of radioactive species in engineered and natural environments. This science base is crucial for underpinning large parts of the UK’s >100 year, >£130 billion nuclear decommissioning, clean-up and waste management programmes.

 

Scientist working on sediment column

Sediment column set up in the environmental radioactivity lab

© Dalton Nuclear Institute

 

To support this work, the RADER user facility will deliver a suite of laboratories designed to handle and analyse radioactive samples from engineered and natural environments. The facility will be co-located with Manchester University’s Research Centre for Radwaste Disposal (RCRD) and embedded within the NERC-funded Williamson Research Centre for Molecular Environmental Science (WRC), drawing on established complementary skills and expertise.

Uniquely in the UK, RADER will offer dedicated laboratories enabling users to undertake Low Level Radiometrics, Environmental Characterisation of Solids (inorganic and biological), Environmental Characterisation of Solutions and Sample Preparation, all in one location and with dedicated Experimental Officer support. Combined, these integrated state-of-the-art facilities will enable low level separations and microbiological, mineralogical and molecular-scale environmental research with a wide range of environmentally relevant radionuclides. RADER will support experiments across realistic radionuclide concentration ranges, and offer comprehensive authentic sample analyses.

Relevant topics for investigation within RADER will include radioactive waste disposal, decontamination, land management, effluent treatment and radionuclide transport in the biosphere, especially where radioactive sample handling and characterisation are required.

The new infrastructure being delivered to the RADER user facility is summarised in key areas below, and augments the already strong infrastructure in the WRC. Support is also provided from 'NNUF @ CRR' on aspects of spectroscopy, magnetism, reprocessing and computational modelling. This will create a suite of RADER laboratories able to handle low-level radiochemical separations and environmental chemistry/biogeochemistry experimental work with radioactive samples. RADER facility development was informed by extensive experience of working with radioactive, environmental samples and devised in close consultation with the UK and international academic and industrial user community.

Low level radiometric counting

  • Low level scintillation counting for environmental samples
  • Alpha spectroscopy
  • Autoradiography to identify radioactive regions in samples

(with access facilitated to existing ORTEC Profile S low-level gamma spectrometer)

 

Environmental characterisation - solutions

  • ICP-MS/MS. Ultra-dilute element concentrations, isotopic information.
  • Capillary IC. Small volume anion analyses.
  • Zetasizer. Colloid molecular particle size, zeta potential, and molecular weight
  • Nanoparticle Tracking Analysis (NTA). Nanoparticle size distribution and concentration

(with access facilitated to existing WRC HPLC for ICPMS speciation and ICP-AES)

 

Environmental characterisation - solids

  • Powder X-ray diffraction
  • Surface Area Analyzer
  • Fourier Transform Infra-Red Spectrometer
  • UV Visible Near Infra-Red Spectrometer

(with access facilitated to existing WRC Quanta 650FEG Environmental Scanning electron microscope)

 

Environmental characterisation - biological

  • Real-Time PCR & Homogenzier for DNA extraction

(with access facilitated to existing Illumina Next Generation Sequencing Platform. DNA sequencing and bioinformatics platforms)

     

    Sample preparation

    • Chemostat. Controlled reaction vessel
    • Isocratic / Peristaltic Pumps for flow-through Column experiments
    • Sectioning saw and polisher/grinder system for sample preparation.
    • Anaerobic Cabinets. O2 / CO2 control.

     

    Researcher loading sample onto beamline

    University of Manchester PhD student demonstrating the loading of a sample containing uranium onto Diamond’s I20-scanning beamline

    © Diamond Light Source

     

    NNUF funded user access scheme for RADER

    As a first step, please email Jon.lloyd@manchester.ac.uk and katherine.morris@manchester.ac.uk to contact RADER for a discussion about the practical feasibility of your proposed research project. Then, you will need to complete a simple NNUF application form. When doing so, please upload an email exchange between you and a member of staff at RADER, confirming the feasibility of your proposed research. Please see the access page of this website for more detail about the NNUF funded user access scheme.
     

    © University of Manchester.