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Spectroscopy of Fe61 via the neutron transfer reaction H2(Fe
Author(s) -
S. Giron,
F. Hammache,
N. de Séréville,
Pierre Roussel,
J. Burgunder,
M. Moukaddam,
D. Beaumel,
L. Càceres,
G. Duchêne,
E. Clément,
B. FernándezDomínguez,
F. Flavigny,
G. de France,
S. Franchoo,
D. Galaviz,
L. R. Gasques,
J. Gibelin,
A. Gillibert,
S. Grévy,
J. Guillot,
M. Heil,
J. Kiener,
V. Lapoux,
François Maréchal,
A. Matta,
I. Matéa,
L. Nalpas,
J. Pancin,
L. Perrot,
A. Obertelli,
R. Raabe,
J. A. Scarpaci,
K. Sieja,
O. Sorlin,
I. Stefan,
C. Stödel,
M. Takechi,
J. C. Thomas,
Y. Togano
Publication year - 2017
Publication title -
physical review. c
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 1.679
H-Index - 235
eISSN - 2469-9993
pISSN - 2469-9985
DOI - 10.1103/physrevc.95.035806
Subject(s) - physics , spectroscopy , analytical chemistry (journal) , inverse , atomic physics , chemistry , geometry , mathematics , chromatography , quantum mechanics
International audienceThe direct component of the 60Fe(n,γ)61Fe cross section was investigated by populating the bound states of the 61Fe nucleus through the (d,pγ) transfer reaction in inverse kinematics using a radioactive beam of 60Fe at 27A MeV. The experiment was performed at GANIL using the MUST2 array and an annular double-sided silicon strip detector for the detection of the light charged particle in coincidence with the photons measured in the EXOGAM γ-ray detectors. For the first time, the spectroscopic factors of the first 3/2−, 5/2−, 1/2−, and 9/2+ states of 61Fe were deduced experimentally from an adiabatic distorted wave approximation analysis of the data. The obtained results show a very good agreement with the shell-model predictions. The calculated direct component of the (n,γ) cross section was found negligible and of about 2% of the total, indicating a dominant resonant component

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