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Spectroscopy of the T= 32 A=47 and A=45 mirror nuclei via one- and two-nucleon knockout reactions

  • S. Uthayakumaar
  • , M. A. Bentley*
  • , E. C. Simpson
  • , T. Haylett
  • , R. Yajzey
  • , S. M. Lenzi
  • , W. Satuła
  • , D. Bazin
  • , J. Belarge
  • , P. C. Bender
  • , P. J. Davies
  • , B. Elman
  • , A. Gade
  • , H. Iwasaki
  • , D. Kahl
  • , N. Kobayashi
  • , B. Longfellow
  • , S. J. Lonsdale
  • , E. Lunderberg
  • , L. Morris
  • D. R. Napoli, T. G. Parry, X. Pereira-Lopez, F. Recchia, J. A. Tostevin, R. Wadsworth, D. Weisshaar
*Corresponding author for this work

    Research output: Contribution to journalArticlepeer-review

    11 Citations (Scopus)

    Abstract

    Level schemes of the proton-rich nuclei, Mn47 (Z=25,N=22) and Cr45 (Z=24,N=21), have been established for the first time. The technique of mirrored one- and two-nucleon knockout reactions was applied to the secondary beams of V48/Mn48 and V47/Cr47 to populate states in Ti47/Mn47 and Sc45/Cr45, respectively. Mirror energy differences (MED) have been studied between the mirrored T=32 states for both mirror pairs and interpreted using both a shell-model approach and a density-functional-theory approach using the no-core configuration-interaction method. MED in this mass region provide a stringent test of the model prescriptions since both fp- and sd-shell orbitals are active and, in Cr45, spherical and well-deformed structures coexist near the ground state. The inclusive and exclusive one-nucleon removal cross sections have been determined for the populated states in Ti47/Mn47 and compared with results from reaction-model calculations.

    Original languageEnglish
    Article number024327
    Number of pages17
    JournalPhysical Review C
    Volume106
    Issue number2
    DOIs
    Publication statusPublished - Aug 2022

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