Author: Sutter, D.F.
Paper Title Page
TUO4LR03
UMER 2.0: Adapting the University of Maryland Electron Ring to Explore Intermediate Space-charge and Nonlinear Optics for Hadron Beam Facilities  
 
  • R.A. Kishek, B. Beaudoin, S. Bernal, I. Haber, T.W. Koeth, E.J. Montgomery, K.J. Ruisard, W.D. Stem, D.F. Sutter
    UMD, College Park, Maryland, USA
 
  Funding: This work is supported by the US Dept. of Energy, Office of High Energy Physics and by the National Science Foundation.
Scaled experiments at the University of Maryland Electron Ring (UMER) facility have a long history of successes in understanding space-charge dynamics. Recent experiments included beam halo and losses, resonances with space-charge, longitudinal space-charge waves, solitons, and longitudinal confinement with induction cells. This talk presents progress in the design of next-generation UMER-based experimental research, with expanded capabilities to study nonlinear lattices. The work is complementary and in collaboration with the proposed IOTA ring at FNAL. UMER offers 3 advantages for this type of research: (1) the ability to assess the effects of intermediate space charge strength relevant to conventional Hadron rings on the performance on nonlinear lattices; (2) its low-cost printed-circuit magnets (enabled by the 10 keV electron beam energy) can be easily replaced to test different lattice concepts; and (3) the detailed diagnostics already in place facilitate benchmarking of simulation codes in this new regime.
 
slides icon Slides TUO4LR03 [8.724 MB]