9–11 May 2017
Niels Bohr Institute
Europe/Copenhagen timezone

Contribution List

27 out of 27 displayed
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  1. Prof. Jens Jorgen Gaardhoje (Niels Bohr Institute)
    09/05/2017, 09:30
  2. Dr Jurgen Schukraft (CERN)
    09/05/2017, 09:40
  3. Prof. Wei Li (Rice University)
    09/05/2017, 10:00
  4. Prof. Jiangyong Jia
    09/05/2017, 11:00
  5. Dr You Zhou (Niels Bohr Institute)
    09/05/2017, 11:40
  6. Dr Maxime Guilbaud
    09/05/2017, 12:20
  7. Mr Mingliang Zhou
    09/05/2017, 14:30
  8. Ms Katarina Gajdosova (Niels Bohr Institute, Copenhagen)
    09/05/2017, 15:00
  9. Prof. Julia Velkovska (Vanderbilt University)
    09/05/2017, 16:00
  10. Prof. Roy Lacey
    09/05/2017, 16:40
  11. 09/05/2017, 17:20
  12. Prof. Paul Romatschke
    10/05/2017, 09:30
  13. Klaus Werner (Univ Nantes)
    10/05/2017, 10:30
  14. Christian Bierlich (Lund University)
    10/05/2017, 11:10
  15. Dr Bjoern Schenke
    10/05/2017, 11:50
  16. Mr Jean-Yves Ollitrault (Saclay)
    10/05/2017, 14:30
  17. Dr Constantinos Loizides
    10/05/2017, 15:10
  18. Dr Michele Floris
    10/05/2017, 16:10
  19. Dr Jan Fiete GROSSE-OETRINGHAUS (CERN)
    11/05/2017, 09:30
    vidyo link: https://vidyoportal.cern.ch/join/Kcmvjg7KUm
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  20. Dr Jan Fiete GROSSE-OETRINGHAUS (CERN)
    11/05/2017, 09:45
  21. Dr Jan Fiete GROSSE-OETRINGHAUS (CERN)
    11/05/2017, 11:00
  22. Prof. Julia Velkovska (Vanderbilt University)
    I will present recent results from RHIC examining collective behavior in a series of experiments that scan different small-system geometries and center-of-mass energies.
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  23. Klaus Werner (Univ Nantes)
    EPOS is a "unified approach" for small and big systems, in all cases implementing intial and final state interactions, the latter ones being essentially a hydrodynamical evolution of the core part. We report about recent developments of the EPOS approach, aiming to understand the transition from small to big systems.
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  24. Christian Bierlich (Lund University)
    The study of collectivity is usually carried out using macroscopic hydrodynamical models, to describe features of the QGP phase. We present new efforts involving the construction of microscopic models to describe strangeness production and collective effects, so far tested for small systems, implemented in the DIPSY and the FritiofP8 event generators.
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  25. Prof. Larissa Bravina