Decay Spectroscopy of $^{129}$Cd
- Saito, Y.
- Dillmann, I.
- Krücken, R.
- Bernier, N.
- Ball, G.C.
- Bowry, M.
- Andreoiu, C.
- Bidaman, H.
- Bildstein, V.
- Boubel, P.
- Burbadge, C.
- Caballero-Folch, R.
- Dunlop, M.R.
- Dunlop, R.
- Evitts, L.J.
- Garcia, F.H.
- Garnsworthy, A.B.
- Garrett, P.E.
- Grawe, H.
- Hackman, G.
- Hallam, S.
- Henderson, J.
- Ilyushkin, S.
- Jungclaus, A.
- Kisliuk, D.
- Lassen, J.
- Li, R.
- Macconnachie, E.
- Maclean, A.D.
- Mcgee, E.
- Moukaddam, M.
- Olaizola, B.
- Padilla-Rodal, E.
- Park, J.
- Paetkau, O.
- Petrache, C.M.
- Pore, J.L.
- Radich, A.J.
- Ruotsalainen, P.
- Smallcombe, J.
- Smith, J.K.
- Svensson, C.E.
- Teigelhöfer, A.
- Turko, J.
- Zidar, T.
DOIAbstract
International audienceExcited states of In129 populated following the β decay of Cd129 were experimentally studied with the GRIFFIN spectrometer at the ISAC facility of TRIUMF, Canada. A 480-MeV proton beam was impinged on a uranium carbide target and Cd129 was extracted using the Ion Guide Laser Ion Source (IG-LIS). β and γ rays following the decay of Cd129 were detected with the GRIFFIN spectrometer comprising the plastic scintillator SCEPTAR and 16 high-purity germanium (HPGe) clover-type detectors. From the β-γ-γ coincidence analysis, 32 new transitions and seven new excited states were established, expanding the previously known level scheme of In129. The logft values deduced from the β-feeding intensities suggest that some of the high...
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