Structure of the N=50 As, Ge, Ga nuclei

E. Sahin; G. de Angelis; G. Duchene; T. Faul; A. Gadea; A. F. Lisetskiy; D. Ackermann; A. Algora; S. Aydin; F. Azaiez; D. Bazzacco; G. Benzoni; M. Bostan; T. Byrski; I. Celikovic; R. Chapman; L. Corradi; S. Courtin; D. Curien; U. Datta Pramanik; F. Didierjean; O. Dorvaux; M. N. Erduran; S. Erturk; E. Farnea; E. Fioretto; G. de France; S. Franchoo; B. Gall; A. Gottardo; B. Guiot; F. Haas; F. Ibrahim; E. Ince; A. Khouaja; A. Kusoglu; G. La Rana; M. Labiche; D. Lebhertz; S. Lenzi; S. Leoni; S. Lunardi; P. Mason; D. Mengoni; C. Michelagnoli; V. Modamio; G. Montagnoli; D. Montanari; R. Moro; B. Mouginot; D. R. Napoli; D. O'Donnell; J. R. B. Oliveira; J. Ollier; R. Orlandi; G. Pollarolo; F. Recchia; J. Robin; M. -D. Salsac; F. Scarlassara; R. P. Singh; R. Silvestri; J. F. Smith; I. Stefan; A. M. Stefanini; K. Subotic; S. Szilner; D. Tonev; D. A. Torres; M. Trotta; P. Ujic; C. Ur; J. J. Valiente-Dobon; D. Verney; M. Yalcinkaya; P. T. Wady; K. T. Wiedemann; K. Zuber

doi:10.1016/j.nuclphysa.2012.08.007

Structure of the N=50 As, Ge, Ga nuclei

E. Sahin
, G. de Angelis
, G. Duchene
, T. Faul
, A. Gadea
, A. F. Lisetskiy
, D. Ackermann
, A. Algora
, S. Aydin
, F. Azaiez
, D. Bazzacco
, G. Benzoni
, M. Bostan
, T. Byrski
, I. Celikovic
, R. Chapman
, L. Corradi
, S. Courtin
, D. Curien
, U. Datta Pramanik

F. Didierjean, O. Dorvaux, M. N. Erduran, S. Erturk, E. Farnea, E. Fioretto, G. de France, S. Franchoo, B. Gall, A. Gottardo, B. Guiot, F. Haas, F. Ibrahim, E. Ince, A. Khouaja, A. Kusoglu, G. La Rana, M. Labiche, D. Lebhertz, S. Lenzi, S. Leoni, S. Lunardi, P. Mason, D. Mengoni, C. Michelagnoli, V. Modamio, G. Montagnoli, D. Montanari, R. Moro, B. Mouginot, D. R. Napoli, D. O'Donnell, J. R. B. Oliveira, J. Ollier, R. Orlandi, G. Pollarolo, F. Recchia, J. Robin, M. -D. Salsac, F. Scarlassara, R. P. Singh, R. Silvestri, J. F. Smith, I. Stefan, A. M. Stefanini, K. Subotic, S. Szilner, D. Tonev, D. A. Torres, M. Trotta, P. Ujic, C. Ur, J. J. Valiente-Dobon, D. Verney, M. Yalcinkaya, P. T. Wady, K. T. Wiedemann, K. Zuber

School of Computing, Engineering and Physical Sciences

Research output: Contribution to journal › Article › peer-review

19 Citations (Scopus)

Abstract

The level structures of the N = 50 83As, 82Ge, and 81Ga isotones have been investigated by means of multi-nucleon transfer reactions. A first experiment was performed with the CLARA–PRISMA setup to identify these nuclei. A second experiment was carried out with the GASP array in order to deduce the
γ -ray coincidence information. The results obtained on the high-spin states of such nuclei are used to test the stability of the N = 50 shell closure in the region of 78Ni (Z = 28). The comparison of the experimental
level schemes with the shell-model calculations yields an N = 50 energy gap value of 4.7(3) MeV at Z = 28. This value, in a good agreement with the prediction of the finite-range liquid-drop model as well as with the recent large-scale shell model calculations, does not support a weakening of the N = 50 shell
gap down to Z = 28.

Original language	English
Pages (from-to)	1-12
Number of pages	12
Journal	Nuclear Physics A
Volume	893
DOIs	https://doi.org/10.1016/j.nuclphysa.2012.08.007
Publication status	Published - 2012

Keywords

Nuclear reactions
Measured
Reaction fragments
PRISMA magnetic spectrometer
Ge Compton-suppreses detectros of CLARA array

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10.1016/j.nuclphysa.2012.08.007

Cite this

Sahin, E., de Angelis, G., Duchene, G., Faul, T., Gadea, A., Lisetskiy, A. F., Ackermann, D., Algora, A., Aydin, S., Azaiez, F., Bazzacco, D., Benzoni, G., Bostan, M., Byrski, T., Celikovic, I., Chapman, R., Corradi, L., Courtin, S., Curien, D., ... Zuber, K. (2012). Structure of the N=50 As, Ge, Ga nuclei. Nuclear Physics A, 893, 1-12. https://doi.org/10.1016/j.nuclphysa.2012.08.007

@article{d30bd36e29734d4e9aa9cf157df1b37c,

title = "Structure of the N=50 As, Ge, Ga nuclei",

abstract = "The level structures of the N = 50 83As, 82Ge, and 81Ga isotones have been investigated by means of multi-nucleon transfer reactions. A first experiment was performed with the CLARA–PRISMA setup to identify these nuclei. A second experiment was carried out with the GASP array in order to deduce the γ -ray coincidence information. The results obtained on the high-spin states of such nuclei are used to test the stability of the N = 50 shell closure in the region of 78Ni (Z = 28). The comparison of the experimental level schemes with the shell-model calculations yields an N = 50 energy gap value of 4.7(3) MeV at Z = 28. This value, in a good agreement with the prediction of the finite-range liquid-drop model as well as with the recent large-scale shell model calculations, does not support a weakening of the N = 50 shell gap down to Z = 28. ",

keywords = "Nuclear reactions, Measured, Reaction fragments, PRISMA magnetic spectrometer, Ge Compton-suppreses detectros of CLARA array",

author = "E. Sahin and \{de Angelis\}, G. and G. Duchene and T. Faul and A. Gadea and Lisetskiy, \{A. F.\} and D. Ackermann and A. Algora and S. Aydin and F. Azaiez and D. Bazzacco and G. Benzoni and M. Bostan and T. Byrski and I. Celikovic and R. Chapman and L. Corradi and S. Courtin and D. Curien and Pramanik, \{U. Datta\} and F. Didierjean and O. Dorvaux and Erduran, \{M. N.\} and S. Erturk and E. Farnea and E. Fioretto and \{de France\}, G. and S. Franchoo and B. Gall and A. Gottardo and B. Guiot and F. Haas and F. Ibrahim and E. Ince and A. Khouaja and A. Kusoglu and \{La Rana\}, G. and M. Labiche and D. Lebhertz and S. Lenzi and S. Leoni and S. Lunardi and P. Mason and D. Mengoni and C. Michelagnoli and V. Modamio and G. Montagnoli and D. Montanari and R. Moro and B. Mouginot and Napoli, \{D. R.\} and D. O'Donnell and Oliveira, \{J. R. B.\} and J. Ollier and R. Orlandi and G. Pollarolo and F. Recchia and J. Robin and Salsac, \{M. -D.\} and F. Scarlassara and Singh, \{R. P.\} and R. Silvestri and Smith, \{J. F.\} and I. Stefan and Stefanini, \{A. M.\} and K. Subotic and S. Szilner and D. Tonev and Torres, \{D. A.\} and M. Trotta and P. Ujic and C. Ur and Valiente-Dobon, \{J. J.\} and D. Verney and M. Yalcinkaya and Wady, \{P. T.\} and Wiedemann, \{K. T.\} and K. Zuber",

year = "2012",

doi = "10.1016/j.nuclphysa.2012.08.007",

language = "English",

volume = "893",

pages = "1--12",

journal = "Nuclear Physics A",

issn = "0375-9474",

publisher = "Elsevier B.V.",

}

Sahin, E, de Angelis, G, Duchene, G, Faul, T, Gadea, A, Lisetskiy, AF, Ackermann, D, Algora, A, Aydin, S, Azaiez, F, Bazzacco, D, Benzoni, G, Bostan, M, Byrski, T, Celikovic, I, Chapman, R, Corradi, L, Courtin, S, Curien, D, Pramanik, UD, Didierjean, F, Dorvaux, O, Erduran, MN, Erturk, S, Farnea, E, Fioretto, E, de France, G, Franchoo, S, Gall, B, Gottardo, A, Guiot, B, Haas, F, Ibrahim, F, Ince, E, Khouaja, A, Kusoglu, A, La Rana, G, Labiche, M, Lebhertz, D, Lenzi, S, Leoni, S, Lunardi, S, Mason, P, Mengoni, D, Michelagnoli, C, Modamio, V, Montagnoli, G, Montanari, D, Moro, R, Mouginot, B, Napoli, DR, O'Donnell, D, Oliveira, JRB, Ollier, J, Orlandi, R, Pollarolo, G, Recchia, F, Robin, J, Salsac, M-D, Scarlassara, F, Singh, RP, Silvestri, R, Smith, JF, Stefan, I, Stefanini, AM, Subotic, K, Szilner, S, Tonev, D, Torres, DA, Trotta, M, Ujic, P, Ur, C, Valiente-Dobon, JJ, Verney, D, Yalcinkaya, M, Wady, PT, Wiedemann, KT & Zuber, K 2012, 'Structure of the N=50 As, Ge, Ga nuclei', Nuclear Physics A, vol. 893, pp. 1-12. https://doi.org/10.1016/j.nuclphysa.2012.08.007

TY - JOUR

T1 - Structure of the N=50 As, Ge, Ga nuclei

AU - Sahin, E.

AU - de Angelis, G.

AU - Duchene, G.

AU - Faul, T.

AU - Gadea, A.

AU - Lisetskiy, A. F.

AU - Ackermann, D.

AU - Algora, A.

AU - Aydin, S.

AU - Azaiez, F.

AU - Bazzacco, D.

AU - Benzoni, G.

AU - Bostan, M.

AU - Byrski, T.

AU - Celikovic, I.

AU - Chapman, R.

AU - Corradi, L.

AU - Courtin, S.

AU - Curien, D.

AU - Pramanik, U. Datta

AU - Didierjean, F.

AU - Dorvaux, O.

AU - Erduran, M. N.

AU - Erturk, S.

AU - Farnea, E.

AU - Fioretto, E.

AU - de France, G.

AU - Franchoo, S.

AU - Gall, B.

AU - Gottardo, A.

AU - Guiot, B.

AU - Haas, F.

AU - Ibrahim, F.

AU - Ince, E.

AU - Khouaja, A.

AU - Kusoglu, A.

AU - La Rana, G.

AU - Labiche, M.

AU - Lebhertz, D.

AU - Lenzi, S.

AU - Leoni, S.

AU - Lunardi, S.

AU - Mason, P.

AU - Mengoni, D.

AU - Michelagnoli, C.

AU - Modamio, V.

AU - Montagnoli, G.

AU - Montanari, D.

AU - Moro, R.

AU - Mouginot, B.

AU - Napoli, D. R.

AU - O'Donnell, D.

AU - Oliveira, J. R. B.

AU - Ollier, J.

AU - Orlandi, R.

AU - Pollarolo, G.

AU - Recchia, F.

AU - Robin, J.

AU - Salsac, M. -D.

AU - Scarlassara, F.

AU - Singh, R. P.

AU - Silvestri, R.

AU - Smith, J. F.

AU - Stefan, I.

AU - Stefanini, A. M.

AU - Subotic, K.

AU - Szilner, S.

AU - Tonev, D.

AU - Torres, D. A.

AU - Trotta, M.

AU - Ujic, P.

AU - Ur, C.

AU - Valiente-Dobon, J. J.

AU - Verney, D.

AU - Yalcinkaya, M.

AU - Wady, P. T.

AU - Wiedemann, K. T.

AU - Zuber, K.

PY - 2012

Y1 - 2012

N2 - The level structures of the N = 50 83As, 82Ge, and 81Ga isotones have been investigated by means of multi-nucleon transfer reactions. A first experiment was performed with the CLARA–PRISMA setup to identify these nuclei. A second experiment was carried out with the GASP array in order to deduce the γ -ray coincidence information. The results obtained on the high-spin states of such nuclei are used to test the stability of the N = 50 shell closure in the region of 78Ni (Z = 28). The comparison of the experimental level schemes with the shell-model calculations yields an N = 50 energy gap value of 4.7(3) MeV at Z = 28. This value, in a good agreement with the prediction of the finite-range liquid-drop model as well as with the recent large-scale shell model calculations, does not support a weakening of the N = 50 shell gap down to Z = 28.

AB - The level structures of the N = 50 83As, 82Ge, and 81Ga isotones have been investigated by means of multi-nucleon transfer reactions. A first experiment was performed with the CLARA–PRISMA setup to identify these nuclei. A second experiment was carried out with the GASP array in order to deduce the γ -ray coincidence information. The results obtained on the high-spin states of such nuclei are used to test the stability of the N = 50 shell closure in the region of 78Ni (Z = 28). The comparison of the experimental level schemes with the shell-model calculations yields an N = 50 energy gap value of 4.7(3) MeV at Z = 28. This value, in a good agreement with the prediction of the finite-range liquid-drop model as well as with the recent large-scale shell model calculations, does not support a weakening of the N = 50 shell gap down to Z = 28.

KW - Nuclear reactions

KW - Measured

KW - Reaction fragments

KW - PRISMA magnetic spectrometer

KW - Ge Compton-suppreses detectros of CLARA array

U2 - 10.1016/j.nuclphysa.2012.08.007

DO - 10.1016/j.nuclphysa.2012.08.007

M3 - Article

SN - 0375-9474

VL - 893

SP - 1

EP - 12

JO - Nuclear Physics A

JF - Nuclear Physics A

ER -

Structure of the N=50 As, Ge, Ga nuclei

Abstract

Keywords

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