^{133}In: A Rosetta Stone for Decays of r-Process Nuclei.

Z Y Xu,M Madurga, R Grzywacz, T T King, A Algora,A N Andreyev, J Benito, T Berry, M J G Borge, C Costache,H De Witte, A Fijalkowska,L M Fraile, H O U Fynbo, A Gottardo, C Halverson, L J Harkness-Brennan, J Heideman, M Huyse, A Illana,Ł Janiak, D S Judson, A Korgul, T Kurtukian-Nieto, I Lazarus, R Lică, R Lozeva, N Marginean, R Marginean,C Mazzocchi, C Mihai, R E Mihai, A I Morales,R D Page, J Pakarinen, M Piersa-Siłkowska,Zs Podolyák, P Sarriguren, M Singh,Ch Sotty, M Stepaniuk, O Tengblad, A Turturica,P Van Duppen, V Vedia, S Viñals, N Warr,R Yokoyama, C X Yuan

Physical review letters(2023)

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Abstract
The β decays from both the ground state and a long-lived isomer of ^{133}In were studied at the ISOLDE Decay Station (IDS). With a hybrid detection system sensitive to β, γ, and neutron spectroscopy, the comparative partial half-lives (logft) have been measured for all their dominant β-decay channels for the first time, including a low-energy Gamow-Teller transition and several first-forbidden (FF) transitions. Uniquely for such a heavy neutron-rich nucleus, their β decays selectively populate only a few isolated neutron unbound states in ^{133}Sn. Precise energy and branching-ratio measurements of those resonances allow us to benchmark β-decay theories at an unprecedented level in this region of the nuclear chart. The results show good agreement with the newly developed large-scale shell model (LSSM) calculations. The experimental findings establish an archetype for the β decay of neutron-rich nuclei southeast of ^{132}Sn and will serve as a guide for future theoretical development aiming to describe accurately the key β decays in the rapid-neutron capture (r-) process.
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