Diagnostic techniques:

  • Non-destructive measurements with nuclear radiation
  • Material characterization with nuclear radiation measurements.
  • X-ray inspection techniques.
  • Characterization of geophysical properties with nuclear devices.
  • Prompt gamma-ray applications to measure elemental composition
  • Detection of explosives and contraband with prompt gamma-ray and x-ray methods.
  • Microscopic x-ray analysis.
  • Tomography of industrial samples like airplane propellers and bulk molten steel.
  • Radiation and phase colloids.

 Nuclear safeguards:

  • Uranium and plutonium passive and active measurement methods.
  • Nuclear well logging: use of nuclear devices for in-situ measurements of borehole parameters.

Medical Applications:

  • Medical and engineering imaging methods and applications: PET, SPECT, CT methods, and phase contrast radiography and tomography.
  • Nuclear applications in medicine: neutron capture therapy (thermal and epithermal neutron methods, BNCT), neutron brachytherapy and clinical applications of Californium-252 sources.
  • Lead and heavy element trace measurements by XRF and other nuclear methods.

Industrial Applications:

  • Emission tomography: two-phase flow and other flow applications.
  • Synchrotron radiation and other polarized sources.
  • Radiotracing applications in industrial processes.
  • Sheet thickness gauging.

Sources and detectors:

  • X- and Gamma-ray detectors
  • Neutron source production and applications.
  • Radiation and radioisotope production with reactors and accelerators.
  • Plasma sources production and applications.
  • New detector technologies.

Modelling:

  • Monte Carlo and other modelling methods of radiation transport, applications to design and measurement interference reduction.
  • Atomic and nuclear data evaluations.
  • Modelling of fundamental interactions.

Radiation Applications in Art and Archaeometry:

  • X-ray fluorescence
  • X- and gamma-ray tomography
  • Thermography and infrared diagnostics
  • Synchrotron radiation and other polarized sources.

Radiation Applications to the Environment:

  • Pollution in air, water and soils using traditional and total reflection x-ray fluorescence
  • Atmospheric aerosols and other LIDAR applications
  • Climate modelling with nuclear techniques.
  • Synchrotron radiation and other polarized sources.

Dosimetry and radiation protection.

Emerging nuclear technologies: new developments.

Fundamental Parameters Initiative:

  • Theoretical calculations of fundamental parameters (FP)
  • Recent measurements of atomic fundamental parameters
  • New data evaluations and databases
  • Methodological developments to reduce FP uncertainties
  • Validation strategies – experiments and theory