Nilsson-SU3 self-consistency in heavy $N=Z$ nuclei

It is argued that there exist natural shell model spaces optimally adapted to the operation of two variants of Elliott' SU3 symmetry that provide accurate predictions of quadrupole moments of deformed states. A selfconsistent Nilsson-like calculation describes the competition between the realis...

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Detalles Bibliográficos
Autores principales: Zuker, A.P., Poves, A., Nowacki, F., Lenzi, S.M.
Lenguaje:eng
Publicado: 2014
Materias:
Nuclear Physics - Theory
Acceso en línea:https://dx.doi.org/10.1103/PhysRevC.92.024320
http://cds.cern.ch/record/1692804
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author Zuker, A.P.
Poves, A.
Nowacki, F.
Lenzi, S.M.
author_facet Zuker, A.P.
Poves, A.
Nowacki, F.
Lenzi, S.M.
author_sort Zuker, A.P.
collection CERN
description It is argued that there exist natural shell model spaces optimally adapted to the operation of two variants of Elliott' SU3 symmetry that provide accurate predictions of quadrupole moments of deformed states. A selfconsistent Nilsson-like calculation describes the competition between the realistic quadrupole force and the central field, indicating a {\em remarkable stability of the quadruplole moments}---which remain close to their quasi and pseudo SU3 values---as the single particle splittings increase. A detailed study of the $N=Z$ even nuclei from $^{56}$Ni to $^{96}$Cd reveals that the region of prolate deformation is bounded by a pair of transitional nuclei $^{72}$Kr and $^{84}$Mo in which prolate ground state bands are predicted to dominate, though coexisting with oblate ones,
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institution Organización Europea para la Investigación Nuclear
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publishDate 2014
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spelling cern-16928042021-09-17T02:41:47Zdoi:10.1103/PhysRevC.92.024320http://cds.cern.ch/record/1692804engZuker, A.P.Poves, A.Nowacki, F.Lenzi, S.M.Nilsson-SU3 self-consistency in heavy $N=Z$ nucleiNuclear Physics - TheoryIt is argued that there exist natural shell model spaces optimally adapted to the operation of two variants of Elliott' SU3 symmetry that provide accurate predictions of quadrupole moments of deformed states. A selfconsistent Nilsson-like calculation describes the competition between the realistic quadrupole force and the central field, indicating a {\em remarkable stability of the quadruplole moments}---which remain close to their quasi and pseudo SU3 values---as the single particle splittings increase. A detailed study of the $N=Z$ even nuclei from $^{56}$Ni to $^{96}$Cd reveals that the region of prolate deformation is bounded by a pair of transitional nuclei $^{72}$Kr and $^{84}$Mo in which prolate ground state bands are predicted to dominate, though coexisting with oblate ones,It is argued that there exist natural shell-model spaces optimally adapted to the operation of two variants of Elliott's SU3 symmetry that provide accurate predictions of quadrupole moments of deformed states. A self-consistent Nilsson-like calculation describes the competition between the realistic quadrupole force and the central field, indicating a remarkable stability of the quadrupole moments—which remain close to their quasi- and pseudo-SU3 values—as the single-particle splittings increase. A detailed study of the N=Z even nuclei from Ni56 to It is argued that there exist natural shell model spaces optimally adapted to the operation of two variants of Elliott' SU3 symmetry that provide accurate predictions of quadrupole moments of deformed states. A selfconsistent Nilsson-like calculation describes the competition between the realistic quadrupole force and the central field, indicating a {\em remarkable stability of the quadruplole moments}---which remain close to their quasi and pseudo SU3 values---as the single particle splittings increase. A detailed study of the $N=Z$ even nuclei from $^{56}$Ni to $^{96}$Cd reveals that the region of prolate deformation is bounded by a pair of transitional nuclei $^{72}$Kr and $^{84}$Mo in which prolate ground state bands are predicted to dominate, though coexisting with oblate ones,arXiv:1404.0224oai:cds.cern.ch:16928042014-04-01
spellingShingle Nuclear Physics - Theory
Zuker, A.P.
Poves, A.
Nowacki, F.
Lenzi, S.M.
Nilsson-SU3 self-consistency in heavy $N=Z$ nuclei
title Nilsson-SU3 self-consistency in heavy $N=Z$ nuclei
title_full Nilsson-SU3 self-consistency in heavy $N=Z$ nuclei
title_fullStr Nilsson-SU3 self-consistency in heavy $N=Z$ nuclei
title_full_unstemmed Nilsson-SU3 self-consistency in heavy $N=Z$ nuclei
title_short Nilsson-SU3 self-consistency in heavy $N=Z$ nuclei
title_sort nilsson-su3 self-consistency in heavy $n=z$ nuclei
topic Nuclear Physics - Theory
url https://dx.doi.org/10.1103/PhysRevC.92.024320
http://cds.cern.ch/record/1692804
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AT povesa nilssonsu3selfconsistencyinheavynznuclei
AT nowackif nilssonsu3selfconsistencyinheavynznuclei
AT lenzism nilssonsu3selfconsistencyinheavynznuclei

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