UL UNIVERSIDADE DE LISBOA CENTRO DE FÍSICA NUCLEAR People: Senior Researchers (responsible for activity lines): Eduardo Alves (Head of Lab) Adelaide Pedro.

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UL UNIVERSIDADE DE LISBOA CENTRO DE FÍSICA NUCLEAR People: Senior Researchers (responsible for activity lines): Eduardo Alves (Head of Lab) Adelaide Pedro de Jesus Luís Cerqueira Alves Miguel Reis Nuno Barradas Rui Coelho da Silva Teresa Pinheiro Ulrich Wahl ITN/CFNUL Ion Beam Laboratory itn.pt/ IAEA Consultant Meeting, Wien 1-2 March 2010

UL UNIVERSIDADE DE LISBOA CENTRO DE FÍSICA NUCLEAR IAEA Consultant Meeting, Wien 1-2 March 2010 ITN/CFNUL Ion Beam Laboratory Van de Graaff  2.5 MV DanFisik Implanter  210 kV General Ionex Cockroft-Walton tandetron  3 MV

UL UNIVERSIDADE DE LISBOA CENTRO DE FÍSICA NUCLEAR Van de Graaff 2.5 MV, 10  A (protons); H, He ions Lines: PIXE/Nuclear Reactions RBS, Chan, ERDA  - probe PIXE analysis of environmental, biomedical, material science, geological, art,….. samples Nuclear Reactions for astrophysics Development of a PIGE methodology Advanced Materials: Wide bandgap semiconductors and oxides Nuclear fusion reactor materials and mineralogical samples. Multiple quantum wells and quantum dots. Materials Science Biomedicine Environment Archaeometry and Art Mineralogy IAEA Consultant Meeting, Wien 1-2 March 2010

UL UNIVERSIDADE DE LISBOA CENTRO DE FÍSICA NUCLEAR General Ionex Cockroft-Walton tandetron 3MV NEC Alphatros ion source for He beams Negative ion direct-extraction Duoplasmatron ion source for H- beams. HICONEX Cs beam multielement negative ion source IAEA Consultant Meeting, Wien 1-2 March 2010

UL UNIVERSIDADE DE LISBOA CENTRO DE FÍSICA NUCLEAR 15 eV resolution (Transition Edge Superconductor -TES) detector Tandem new lines of activity Molecular speciation from PIXE spectra Heavy Ion Elastic Recoil Detection analyses (HIERDA) – A ToF system is under construction to profile light ions using either Cl or I beams. IAEA Consultant Meeting, Wien 1-2 March 2010

Two beamlines for AMS: A) for 14 C dating: 2 off-center Faraday cups for parallel current measurement of 12 C 3+ and 13 C 3+, while the 14 C 3+ detection is by means of an electrostatic analyzer and a gas proportional counter. B) Heavy ion ("AUSTRALIS") beamline with HICONEX Cs microbeam ( mm) multielement ("AUSTRALIS") negative ion source. The magnet is able of analyzing 6+ (or higher charge state) ions of all elements up to U at 2.5 MV terminal voltage. Sequential analysis of different isotopes (around +-3% of center mass) in the magnet is possible by means of the "fast bouncing" technique. UL UNIVERSIDADE DE LISBOA CENTRO DE FÍSICA NUCLEAR Tandem new lines of activity AMS IAEA Consultant Meeting, Wien 1-2 March 2010

UL UNIVERSIDADE DE LISBOA CENTRO DE FÍSICA NUCLEAR Tandem new lines of activity Nuclear Reactions/PIGE IAEA Consultant Meeting, Wien 1-2 March 2010

UL UNIVERSIDADE DE LISBOA CENTRO DE FÍSICA NUCLEAR Tandem new lines of activity Nuclear Reactions/PIGE IAEA Consultant Meeting, Wien 1-2 March 2010 Beam X-ray detector Gamma-ray detector Particle detectors

UL UNIVERSIDADE DE LISBOA CENTRO DE FÍSICA NUCLEAR Development of a PIGE Methodology IAEA Consultant Meeting, Wien 1-2 March 2010 DEPTH Division of the sample surface in sublayers YkYk YkYk YjYj YjYj ERYA CODE Within each sublayer the stopping power cross sections may be assumed as constant SAMPLE PROTON DEPTH YmYm YmYm YnYn YnYn YlYl YlYl YiYi YiYi E incident =2380 keV E incident E-ΔE Yield calculated by ERYA

Development of a PIGE Methodology IAEA Consultant Meeting, Wien 1-2 March 2010 UL UNIVERSIDADE DE LISBOA CENTRO DE FÍSICA NUCLEAR E i =2380 keV ZOOM Excitation function of 25 Mg(p,p’  ) 25 Mg Energy (keV)  (E) arbitrary units Thick target E beam =2380 to 0 keV Thick target E beam =2380 to 0 keV ERYA CODE

Development of a PIGE Methodology IAEA Consultant Meeting, Wien 1-2 March 2010 UL UNIVERSIDADE DE LISBOA CENTRO DE FÍSICA NUCLEAR    (E) k=5    (E) k=6    (E) k=4 Energy (keV)  (E) arbitrary units to  (E=0) Number of sublayers is chosen equal to the number of energy steps in the excitation function    (E) k=3    (E) k=2    (E) k=1 ERYA CODE

UL UNIVERSIDADE DE LISBOA CENTRO DE FÍSICA NUCLEAR Development of a PIGE Methodology IAEA Consultant Meeting, Wien 1-2 March 2010 The ERYA code - Labview ERYA CODE

UL UNIVERSIDADE DE LISBOA CENTRO DE FÍSICA NUCLEAR Development of a PIGE Methodology IAEA Consultant Meeting, Wien 1-2 March 2010 Aready accomplished Li, B, F, Na; Mg, Al for proton energy up to 2.4 MeV Be for proton energy up to 1.7 MeV Li, F, Mg for energies up to 4 MeV Analysis going on Work Done

UL UNIVERSIDADE DE LISBOA CENTRO DE FÍSICA NUCLEAR Development of a PIGE Methodology IAEA Consultant Meeting, Wien 1-2 March 2010 Now and near future The CNO problem 2.36 MeV 12 C 2.36 MeV 12 C

UL UNIVERSIDADE DE LISBOA CENTRO DE FÍSICA NUCLEAR Development of a PIGE Methodology IAEA Consultant Meeting, Wien 1-2 March 2010 Now and near future The CNO problem Near future: Cross Section Measurement of (p, p´  ) and (p,  ) reactions on 15N and 18 O 4.44 MeV 15 N 1.98 MeV 18 O

UL UNIVERSIDADE DE LISBOA CENTRO DE FÍSICA NUCLEAR Development of a PIGE Methodology IAEA Consultant Meeting, Wien 1-2 March 2010 The future Inclusion of profiling in ERYA Extension of other excitation functions to higher energies – 4 MeV Coincidence methods to clean up the spectra Special problems – underground ?