J. Hinnefeld
Indiana University South Bend
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Publication
Featured researches published by J. Hinnefeld.
Nuclear Instruments & Methods in Physics Research Section A-accelerators Spectrometers Detectors and Associated Equipment | 2003
B. Luther; T. Baumann; M. Thoennessen; Jeremy S. Brown; Paul DeYoung; J. E. Finck; J. Hinnefeld; R. Howes; Kirby W. Kemper; P. V. Pancella; Graham F. Peaslee; Warren F. Rogers; S. L. Tabor
The Modular Neutron Array (MoNA), a highly efficient time-of-flight neutron detector, is being constructed for use at the National Superconducting Cyclotron Laboratory. The modular design of the detector provides significant flexibility and allows the bulk of the assembly and testing to be done by undergraduates at nine of the schools participating in the project.
Nuclear Physics | 2013
S. Mosby; N.S. Badger; T. Baumann; D. Bazin; M. Bennett; J. Brown; G. Christian; Paul DeYoung; J. E. Finck; M. Gardner; J. Hinnefeld; E.A. Hook; E. Lunderberg; B. Luther; D.A. Meyer; M. Mosby; Graham F. Peaslee; Warren F. Rogers; J. K. Smith; J. Snyder; A. Spyrou; M.J. Strongman; M. Thoennessen
A search for the neutron-unbound nucleus
Nuclear Physics | 1997
J. J. Kolata; J. von Schwarzenberg; D. Peterson; P. Santi; J. Hinnefeld
^{21}
Nuclear Physics | 1996
Paul DeYoung; R. Bennink; T. Butler; W. Chung; Christopher Dykstra; G. P. Gilfoyle; J. Hinnefeld; Morten Kaplan; J. J. Kolata; R.A. Kryger; J. Kugi; Catherine M. Mader; M. Nimchek; P. Santi; A. Snyder
C was performed via the single proton removal reaction from a beam of 22 N at 68 MeV/u. Neutrons were detected with the Modular Neutron Array (MoNA) in coincidence with
International Conference on Proton Emitting Nuclei and Related Topics, PROCON 2007 | 2007
N. Frank; T. Baumann; D. Bazin; J. A. Brown; Paul DeYoung; J. E. Finck; A. Gade; J. Hinnefeld; R. Howes; J.-L. Lecouey; B. Luther; W. A. Peters; H. Scheit; A. Schiller; M. Thoennessen
^{20}
Journal of Physics: Conference Series | 2014
Z. Kohley; T. Baumann; D. Bazin; G. Christian; P. A. De Young; J. E. Finck; R. A. Haring-Kaye; J. Hinnefeld; N. Frank; E. Lunderberg; B. Luther; S. Mosby; W. A. Peters; J.K. Smith; J. Snyder; S. L. Stephenson; M.J. Strongman; A. Spyrou; M. Thoennessen; Alexander Volya
C fragments. No evidence for a low-lying state was found, and the reconstructed
Nuclear Physics | 2003
V. Guimarães; R. Kuramoto; R. Lichtenhäler; G. Amadio; E. Benjamin; P. N. de Faria; A. Lépine-Szily; G. F. Lima; J. J. Kolata; G. Rogachev; F. D. Becchetti; T.W. O'Donnell; Y. Chen; J. Hinnefeld; J. Lapton
^{20}
Physical Review C | 2013
Z. Kohley; E. Lunderberg; Paul A De Young; Alexander Volya; T. Baumann; D. Bazin; G. Christian; N L Cooper; N. Frank; A. Gade; C. Hall; J. Hinnefeld; B. Luther; S. Mosby; W. A. Peters; J. K. Smith; J. Snyder; Artemisia Spyrou; M. Thoennessen
C+n decay energy spectrum could be described with an s-wave line shape with a scattering length limit of |as| < 2.8 fm, consistent with shell model predictions. A comparison with a renormalized zero-range three-body model suggests that
Archive | 2003
G. Rogachev; J. J. Kolata; F. D. Becchetti; Paul DeYoung; M. Hencheck; K. Helland; J. Hinnefeld; B. Hughey; P.L. Jolivette; L. M. Kiessel; H.-Y. Lee; M. Y. Lee; T. W. O’Donnell; Graham F. Peaslee; D. Peterson; D. A. Roberts; P. Santi; S. A. Shaheen
^{22}
Nuclear Physics | 1997
Johannes von Schwarzenberg; J. J. Kolata; D. Peterson; P. Santi; M. Belbot; J. Hinnefeld
C is bound by less than 70 keV.