Shell evolution beyond Z = 28 and N = 50: Spectroscopy of 81,82,83,84 Zn | Zendy

C.M. Shand | Zendy; Zs. Podolyák | Zendy; M. Górska | Zendy; P. Doornenbal | Zendy; A. Obertelli | Zendy; F. Nowacki | Zendy; T. Otsuka | Zendy; K. Sieja | Zendy; J. A. Tostevin | Zendy; Y. Tsunoda | Zendy; G. Authelet | Zendy; H. Baba | Zendy; D. Calvet | Zendy; A. Château | Zendy; Shasha Chen | Zendy; A. Corsi | Zendy; A. Delbart | Zendy; J.-M. Gheller | Zendy; A. Giga | Zendy; A. Gillibert | Zendy; T. Isobe | Zendy; V. Lapoux | Zendy; M. Matsushita | Zendy; S. Momiyama | Zendy; T. Motobayashi | Zendy; M. Nııkura | Zendy; H. Otsu | Zendy; N. Paul | Zendy; Clara Péron | Zendy; A. Peyaud | Zendy; E. Pollacco | Zendy; J.-Y. Roussé | Zendy; H. Sakuraï | Zendy; C. Santamaria | Zendy; M. Sasano | Zendy; Yoshinori Shiga | Zendy; D. Steppenbeck | Zendy; Satoshi Takeuchi | Zendy; R. Taniuchi | Zendy; Т. Уесака | Zendy; H. Wang | Zendy; K. Yoneda | Zendy; Takashi Ando | Zendy; T. Arıcı | Zendy; A. Blazhev | Zendy; F. Browne | Zendy; A. M. Bruce | Zendy; R. Carroll | Zendy; L. X. Chung | Zendy; M. L. Cortés | Zendy; M. Dewald | Zendy; B. Ding | Zendy; Zs. Dombrádi | Zendy; F. Flavigny | Zendy; S. Franchoo | Zendy; F. Giacoppo | Zendy; A. Gottardo | Zendy; K. Hadyńska-Klȩk | Zendy; A. Jungclaus | Zendy; Z. Korkulu | Zendy; S. Koyama | Zendy; Y. Kubota | Zendy; Jeehyun Lee | Zendy; M. Lettmann | Zendy; B. D. Linh | Zendy; J. Liu | Zendy; Zihui Liu | Zendy; C. Lizarazo | Zendy; C. Louchart | Zendy; R. Lozeva | Zendy; K. Matsui | Zendy; T. Miyazaki | Zendy; K. Moschner | Zendy; M. Nagamine | Zendy; N. Nakatsuka | Zendy; S. Nishimura | Zendy; Cristiiță | Zendy; C.R. Nobs | Zendy; L. Olivier | Zendy; S. Ota | Zendy; R. Orlandi | Zendy; Z. Patel | Zendy; P. H. Regan | Zendy; M. Rüdigier | Zendy; E. Şahin | Zendy; T. Saito | Zendy; P.-A. Söderström | Zendy; I. Stefan | Zendy; T. Sumikama | Zendy; D. Suzuki | Zendy; Zs. Vajta | Zendy; V. Vaquero | Zendy; V. Werner | Zendy; K. Wimmer | Zendy; J. Wu | Zendy; Z. Y. Xu | Zendy

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Shell evolution beyond Z = 28 and N = 50: Spectroscopy of 81,82,83,84 Zn

Author(s) -

C.M. Shand,

Zs. Podolyák,

M. Górska,

P. Doornenbal,

A. Obertelli,

F. Nowacki,

T. Otsuka,

K. Sieja,

J. A. Tostevin,

Y. Tsunoda,

G. Authelet,

H. Baba,

D. Calvet,

A. Château,

Shasha Chen,

A. Corsi,

A. Delbart,

J.-M. Gheller,

A. Giga,

A. Gillibert,

T. Isobe,

V. Lapoux,

M. Matsushita,

S. Momiyama,

T. Motobayashi,

M. Nııkura,

H. Otsu,

N. Paul,

Clara Péron,

A. Peyaud,

E. Pollacco,

J.-Y. Roussé,

H. Sakuraï,

C. Santamaria,

M. Sasano,

Yoshinori Shiga,

D. Steppenbeck,

Satoshi Takeuchi,

R. Taniuchi,

Т. Уесака,

H. Wang,

K. Yoneda,

Takashi Ando,

T. Arıcı,

A. Blazhev,

F. Browne,

A. M. Bruce,

R. Carroll,

L. X. Chung,

M. L. Cortés,

M. Dewald,

B. Ding,

Zs. Dombrádi,

F. Flavigny,

S. Franchoo,

F. Giacoppo,

A. Gottardo,

K. Hadyńska-Klȩk,

A. Jungclaus,

Z. Korkulu,

S. Koyama,

Y. Kubota,

Jeehyun Lee,

M. Lettmann,

B. D. Linh,

J. Liu,

Zihui Liu,

C. Lizarazo,

C. Louchart,

R. Lozeva,

K. Matsui,

T. Miyazaki,

K. Moschner,

M. Nagamine,

N. Nakatsuka,

S. Nishimura,

Cristiiță,

C.R. Nobs,

L. Olivier,

S. Ota,

R. Orlandi,

Z. Patel,

P. H. Regan,

M. Rüdigier,

E. Şahin,

T. Saito,

P.-A. Söderström,

I. Stefan,

T. Sumikama,

D. Suzuki,

Zs. Vajta,

V. Vaquero,

V. Werner,

K. Wimmer,

J. Wu,

Z. Y. Xu

Publication year - 2017

Publication title -

physics letters b

Language(s) - English

Resource type - Journals

SCImago Journal Rank - 2.093

H-Index - 283

eISSN - 1873-2445

pISSN - 0370-2693

DOI - 10.1016/j.physletb.2017.09.001

Subject(s) - physics , spectroscopy , atomic orbital , atomic physics , isotope , neutron , shell model , shell (structure) , neutron number , nuclear physics , neutron temperature , neutron cross section , quantum mechanics , materials science , composite material , electron

International audienceWe report on the measurement of new low-lying states in the neutron-rich 81,82,83,84 Zn nuclei via in-beam γ -ray spectroscopy. These include the 41+→21+ transition in 82 Zn, the 21+→0g.s.+ and 41+→21+ transitions in 84 Zn, and low-lying states in 81,83 Zn were observed for the first time. The reduced E(21+) energies and increased E(41+)/E(2+1) ratios at N=52 , 54 compared to those in 80 Zn attest that the magicity is confined to the neutron number N=50 only. The deduced level schemes are compared to three state-of-the-art shell model calculations and a good agreement is observed with all three calculations. The newly observed 2+ and 4+ levels in 84 Zn suggest the onset of deformation towards heavier Zn isotopes, which has been incorporated by taking into account the upper sdg orbitals in the Ni78-II and the PFSDG-U models

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