_version_ 1780916609860239360
author Van de Walle, J
Aksouh, F
Behrens, T
Bildstein, V
Blazhev, A
Cederkäll, J
Clément, E
Cocolios, T E
Davinson, T
Delahaye, P
Eberth, J
Ekström, A
Fedorov, D V
Fedosseev, V
Fraile, L M
Franchoo, S
Gernhäuser, R
Georgiev, G
Habs, D
Heyde, K
Huber, G
Huyse, M
Ibrahim, F
Ivanov, O
Iwanicki, J
Jolie, J
Kester, O
Köster, U
Kröll, T
Krücken, R
Lauer, M
Lisetskiy, A F
Lutter, R
Marsh, B A
Mayet, P
Niedermaier, O
Pantea, M
Raabe, R
Reiter, P
Sawicka, M
Scheit, H
Schrieder, G
Schwalm, D
Seliverstov, M D
Sieber, T
Sletten, G
Smirnova, N
Stanoiu, M
Stefanescu, I
Thomas, J C
Valiente-Dobón, J J
Van Duppen, P
Verney, D
Voulot, D
Warr, N
Weisshaar, D
Wenander, F
Wolf, B H
Zielinska, M
author_facet Van de Walle, J
Aksouh, F
Behrens, T
Bildstein, V
Blazhev, A
Cederkäll, J
Clément, E
Cocolios, T E
Davinson, T
Delahaye, P
Eberth, J
Ekström, A
Fedorov, D V
Fedosseev, V
Fraile, L M
Franchoo, S
Gernhäuser, R
Georgiev, G
Habs, D
Heyde, K
Huber, G
Huyse, M
Ibrahim, F
Ivanov, O
Iwanicki, J
Jolie, J
Kester, O
Köster, U
Kröll, T
Krücken, R
Lauer, M
Lisetskiy, A F
Lutter, R
Marsh, B A
Mayet, P
Niedermaier, O
Pantea, M
Raabe, R
Reiter, P
Sawicka, M
Scheit, H
Schrieder, G
Schwalm, D
Seliverstov, M D
Sieber, T
Sletten, G
Smirnova, N
Stanoiu, M
Stefanescu, I
Thomas, J C
Valiente-Dobón, J J
Van Duppen, P
Verney, D
Voulot, D
Warr, N
Weisshaar, D
Wenander, F
Wolf, B H
Zielinska, M
author_sort Van de Walle, J
collection CERN
description At the radioactive ion beam facility REX-ISOLDE, neutron-rich zinc isotopes were investigated using low-energy Coulomb excitation. These experiments have resulted in B(E2,20) values in 74-80Zn, B(E2,42) values in 74,76Zn and the determination of the energy of the first excited 2 states in 78,80Zn. The zinc isotopes were produced by high-energy proton- (A=74,76,80) and neutron- (A=78) induced fission of 238U, combined with selective laser ionization and mass separation. The isobaric beam was postaccelerated by the REX linear accelerator and Coulomb excitation was induced on a thin secondary target, which was surrounded by the MINIBALL germanium detector array. In this work, it is shown how the selective laser ionization can be used to deal with the considerable isobaric beam contamination and how a reliable normalization of the experiment can be achieved. The results for zinc isotopes and the N=50 isotones are compared to collective model predictions and state-of-the-art large-scale shell-model calculations, including a recent empirical residual interaction constructed to describe the present experimental data up to 2004 in this region of the nuclear chart.
id cern-1190768
institution Organización Europea para la Investigación Nuclear
language eng
publishDate 2009
record_format invenio
spelling cern-11907682019-09-30T06:29:59Zdoi:10.1103/PhysRevC.79.014309http://cds.cern.ch/record/1190768engVan de Walle, JAksouh, FBehrens, TBildstein, VBlazhev, ACederkäll, JClément, ECocolios, T EDavinson, TDelahaye, PEberth, JEkström, AFedorov, D VFedosseev, VFraile, L MFranchoo, SGernhäuser, RGeorgiev, GHabs, DHeyde, KHuber, GHuyse, MIbrahim, FIvanov, OIwanicki, JJolie, JKester, OKöster, UKröll, TKrücken, RLauer, MLisetskiy, A FLutter, RMarsh, B AMayet, PNiedermaier, OPantea, MRaabe, RReiter, PSawicka, MScheit, HSchrieder, GSchwalm, DSeliverstov, M DSieber, TSletten, GSmirnova, NStanoiu, MStefanescu, IThomas, J CValiente-Dobón, J JVan Duppen, PVerney, DVoulot, DWarr, NWeisshaar, DWenander, FWolf, B HZielinska, MLow-energy Coulomb excitation of neutron-rich zinc isotopesNuclear Physics - ExperimentAt the radioactive ion beam facility REX-ISOLDE, neutron-rich zinc isotopes were investigated using low-energy Coulomb excitation. These experiments have resulted in B(E2,20) values in 74-80Zn, B(E2,42) values in 74,76Zn and the determination of the energy of the first excited 2 states in 78,80Zn. The zinc isotopes were produced by high-energy proton- (A=74,76,80) and neutron- (A=78) induced fission of 238U, combined with selective laser ionization and mass separation. The isobaric beam was postaccelerated by the REX linear accelerator and Coulomb excitation was induced on a thin secondary target, which was surrounded by the MINIBALL germanium detector array. In this work, it is shown how the selective laser ionization can be used to deal with the considerable isobaric beam contamination and how a reliable normalization of the experiment can be achieved. The results for zinc isotopes and the N=50 isotones are compared to collective model predictions and state-of-the-art large-scale shell-model calculations, including a recent empirical residual interaction constructed to describe the present experimental data up to 2004 in this region of the nuclear chart.oai:cds.cern.ch:11907682009
spellingShingle Nuclear Physics - Experiment
Van de Walle, J
Aksouh, F
Behrens, T
Bildstein, V
Blazhev, A
Cederkäll, J
Clément, E
Cocolios, T E
Davinson, T
Delahaye, P
Eberth, J
Ekström, A
Fedorov, D V
Fedosseev, V
Fraile, L M
Franchoo, S
Gernhäuser, R
Georgiev, G
Habs, D
Heyde, K
Huber, G
Huyse, M
Ibrahim, F
Ivanov, O
Iwanicki, J
Jolie, J
Kester, O
Köster, U
Kröll, T
Krücken, R
Lauer, M
Lisetskiy, A F
Lutter, R
Marsh, B A
Mayet, P
Niedermaier, O
Pantea, M
Raabe, R
Reiter, P
Sawicka, M
Scheit, H
Schrieder, G
Schwalm, D
Seliverstov, M D
Sieber, T
Sletten, G
Smirnova, N
Stanoiu, M
Stefanescu, I
Thomas, J C
Valiente-Dobón, J J
Van Duppen, P
Verney, D
Voulot, D
Warr, N
Weisshaar, D
Wenander, F
Wolf, B H
Zielinska, M
Low-energy Coulomb excitation of neutron-rich zinc isotopes
title Low-energy Coulomb excitation of neutron-rich zinc isotopes
title_full Low-energy Coulomb excitation of neutron-rich zinc isotopes
title_fullStr Low-energy Coulomb excitation of neutron-rich zinc isotopes
title_full_unstemmed Low-energy Coulomb excitation of neutron-rich zinc isotopes
title_short Low-energy Coulomb excitation of neutron-rich zinc isotopes
title_sort low-energy coulomb excitation of neutron-rich zinc isotopes
topic Nuclear Physics - Experiment
url https://dx.doi.org/10.1103/PhysRevC.79.014309
http://cds.cern.ch/record/1190768
work_keys_str_mv AT vandewallej lowenergycoulombexcitationofneutronrichzincisotopes
AT aksouhf lowenergycoulombexcitationofneutronrichzincisotopes
AT behrenst lowenergycoulombexcitationofneutronrichzincisotopes
AT bildsteinv lowenergycoulombexcitationofneutronrichzincisotopes
AT blazheva lowenergycoulombexcitationofneutronrichzincisotopes
AT cederkallj lowenergycoulombexcitationofneutronrichzincisotopes
AT clemente lowenergycoulombexcitationofneutronrichzincisotopes
AT cocolioste lowenergycoulombexcitationofneutronrichzincisotopes
AT davinsont lowenergycoulombexcitationofneutronrichzincisotopes
AT delahayep lowenergycoulombexcitationofneutronrichzincisotopes
AT eberthj lowenergycoulombexcitationofneutronrichzincisotopes
AT ekstroma lowenergycoulombexcitationofneutronrichzincisotopes
AT fedorovdv lowenergycoulombexcitationofneutronrichzincisotopes
AT fedosseevv lowenergycoulombexcitationofneutronrichzincisotopes
AT frailelm lowenergycoulombexcitationofneutronrichzincisotopes
AT franchoos lowenergycoulombexcitationofneutronrichzincisotopes
AT gernhauserr lowenergycoulombexcitationofneutronrichzincisotopes
AT georgievg lowenergycoulombexcitationofneutronrichzincisotopes
AT habsd lowenergycoulombexcitationofneutronrichzincisotopes
AT heydek lowenergycoulombexcitationofneutronrichzincisotopes
AT huberg lowenergycoulombexcitationofneutronrichzincisotopes
AT huysem lowenergycoulombexcitationofneutronrichzincisotopes
AT ibrahimf lowenergycoulombexcitationofneutronrichzincisotopes
AT ivanovo lowenergycoulombexcitationofneutronrichzincisotopes
AT iwanickij lowenergycoulombexcitationofneutronrichzincisotopes
AT joliej lowenergycoulombexcitationofneutronrichzincisotopes
AT kestero lowenergycoulombexcitationofneutronrichzincisotopes
AT kosteru lowenergycoulombexcitationofneutronrichzincisotopes
AT krollt lowenergycoulombexcitationofneutronrichzincisotopes
AT kruckenr lowenergycoulombexcitationofneutronrichzincisotopes
AT lauerm lowenergycoulombexcitationofneutronrichzincisotopes
AT lisetskiyaf lowenergycoulombexcitationofneutronrichzincisotopes
AT lutterr lowenergycoulombexcitationofneutronrichzincisotopes
AT marshba lowenergycoulombexcitationofneutronrichzincisotopes
AT mayetp lowenergycoulombexcitationofneutronrichzincisotopes
AT niedermaiero lowenergycoulombexcitationofneutronrichzincisotopes
AT panteam lowenergycoulombexcitationofneutronrichzincisotopes
AT raaber lowenergycoulombexcitationofneutronrichzincisotopes
AT reiterp lowenergycoulombexcitationofneutronrichzincisotopes
AT sawickam lowenergycoulombexcitationofneutronrichzincisotopes
AT scheith lowenergycoulombexcitationofneutronrichzincisotopes
AT schriederg lowenergycoulombexcitationofneutronrichzincisotopes
AT schwalmd lowenergycoulombexcitationofneutronrichzincisotopes
AT seliverstovmd lowenergycoulombexcitationofneutronrichzincisotopes
AT siebert lowenergycoulombexcitationofneutronrichzincisotopes
AT sletteng lowenergycoulombexcitationofneutronrichzincisotopes
AT smirnovan lowenergycoulombexcitationofneutronrichzincisotopes
AT stanoium lowenergycoulombexcitationofneutronrichzincisotopes
AT stefanescui lowenergycoulombexcitationofneutronrichzincisotopes
AT thomasjc lowenergycoulombexcitationofneutronrichzincisotopes
AT valientedobonjj lowenergycoulombexcitationofneutronrichzincisotopes
AT vanduppenp lowenergycoulombexcitationofneutronrichzincisotopes
AT verneyd lowenergycoulombexcitationofneutronrichzincisotopes
AT voulotd lowenergycoulombexcitationofneutronrichzincisotopes
AT warrn lowenergycoulombexcitationofneutronrichzincisotopes
AT weisshaard lowenergycoulombexcitationofneutronrichzincisotopes
AT wenanderf lowenergycoulombexcitationofneutronrichzincisotopes
AT wolfbh lowenergycoulombexcitationofneutronrichzincisotopes
AT zielinskam lowenergycoulombexcitationofneutronrichzincisotopes