deformation dependence of the isovector giant dipole resonance: the neodymium isotopic chain revisited

deformation dependence of the isovector giant dipole resonance: the neodymium isotopic chain revisited

;L.M. Donaldson;C.A. Bertulani;J. Carter;V.O. Nesterenko;P. von Neumann-Cosel;R. Neveling;V.Yu. Ponomarev;P.-G. Reinhard;I.T. Usman;P. Adsley;J.W. Brummer;E.Z. Buthelezi;G.R.J. Cooper;R.W. Fearick;S.V. Förtsch;H. Fujita;Y. Fujita;M. Jingo;W. Kleinig;C.O. Kureba;J. Kvasil;M. Latif;K.C.W. Li;J.P. Mira;F. Nemulodi;P. Papka;L. Pellegri;N. Pietralla;A. Richter;E. Sideras-Haddad;F.D. Smit;G.F. Steyn;J.A. Swartz;A. Tamii
ACS chemical biology 2018 Vol. 776 pp. 133-138
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donaldson2018physicsdeformation

Abstract

Proton inelastic scattering experiments at energy Ep=200 MeV and a spectrometer scattering angle of 0° were performed on 144,146,148,150Nd and 152Sm exciting the IsoVector Giant Dipole Resonance (IVGDR). Comparison with results from photo-absorption experiments reveals a shift of resonance maxima towards higher energies for vibrational and transitional nuclei. The extracted photo-absorption cross sections in the most deformed nuclei, 150Nd and 152Sm, exhibit a pronounced asymmetry rather than a distinct double-hump structure expected as a signature of K-splitting. This behaviour may be related to the proximity of these nuclei to the critical point of the phase shape transition from vibrators to rotors with a soft quadrupole deformation potential. Self-consistent random-phase approximation (RPA) calculations using the SLy6 Skyrme force provide a relevant description of the IVGDR shapes deduced from the present data.

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10.1016/j.physletb.2017.11.025
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