Author: Winkler, M.
Paper Title Page
MOPEA010 Transfer of RIB’s between ISOL Target and Experiment Hall at SPIRAL 2 85
 
  • F.R. Osswald, T. Adam, E. Bouquerel, D. Boutin, A. Dinkov, M. Rousseau, A. Sellam
    IPHC, Strasbourg Cedex 2, France
  • N.Yu. Kazarinov
    JINR, Dubna, Moscow Region, Russia
  • H. Weick, M. Winkler
    GSI, Darmstadt, Germany
 
  Funding: The authors would like to acknowledge the German-French and Russian-French agreements enabling the allocation of resources : IN2P3 - GSI (id. 12-69), and IN2P3 - JINR (id. 11-88) collaborations.
The production of intense radioactive beams requires a high power target, an efficient beam selection and transport, safe operations and a reliable-cost effective facility. The SPIRAL 2 project a so called second generation RIB facility is under construction at GANIL. The low energy RIB’s will be produced by neutron induced fissions obtained from a 40 MeV primary beam (deutons) and a graphit convertor. Several issues must be addressed in order to insure the safety rules and ultimately the performances requested by the scientific programme. Among them, the space charge dominated regime during the extraction of the beam after the target and the ion source, the compromise between beam transmission, rejection of the light-ion beam, and management of the main safety features. Most of the investigations currently in progress are devoted to the nuclear engineering, the maintenance and the multi-scale integration of the segmented beam line with the infrastructure.
* RIB dynamics of the SPIRAL 2 Transfer Line, HIAT 2012
** Simulation of Hollow Beam formation at SPIRAL 2, IPAC 2011
*** A Secondary Radioactive Beam Line Section for SPIRAL 2, HIAT 2009
 
 
THPME005 Status of the Super FRS Magnet Development for FAIR 3519
 
  • H. Müller, E.S. Fischer, H. Leibrock, P. Schnizer, M. Winkler
    GSI, Darmstadt, Germany
 
  The Super-FRS is a new two stage in flight separator to be built on the site of GSI, Darmstadt, Germany as part of the FAIR (Facility for Anti-proton and Ion Research). It will be able to create and spatially separate rare isotopes from all elements up to Uranium. Also very short lived nuclei will be observed efficiently. The Super-FRS has three branches, so a wide variety of experiments can be carried out in frame of the NUSTAR collaboration. The large acceptance needed leads to large apertures of the magnets and therefore only a superconducting solution is feasible. The magnets of the Super-FRS are of the so called superferric type. These magnets use superconducting coils but the field is shaped by magnetic iron yoke. In this contribution the actual status of the designs of the dipole and multipole magnets will be presented.