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Bibliographic Details
Main Authors: Mayr, H., Stetz, T., Werner, V., Beckers, M., Blazhev, A., Esmaylzadeh, A., Fischer, J., Gerst, R. -B., Gladnishki, K. A., Ide, K. E., Jolie, J., Karayonchev, V., Kleis, E., Kleis, H., Koch, P., Kocheva, D., Nickel, C. M., Otsuka, T., Pfeil, A., Pietralla, N., Rainovski, G., von Spee, F., Stoyanova, M., Tsunoda, Y., Zidarova, R.
Format: Preprint
Published: 2025
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Online Access:https://arxiv.org/abs/2509.19570
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Table of Contents:
  • The evolution of the collectivity of tellurium isotopes from mid-shell towards $N=82$ is currently based mainly on properties of the first excited $2^+$ states. To extend structural information in this isotopic chain, in particular with respect to the balance of microscopic, seniority-type and collective excitations, electric quadrupole transition strengths from $4^+$ states need to be considered. An experiment was performed to determine the $4_1^+$ lifetime of $^{132}$Te via the recoil-distance Doppler-shift method at the University of Cologne tandem accelerator. The isotope of interest was populated in the two neutron-transfer reaction $^{130}$Te($^{18}$O,$^{16}$O)$^{132}$Te$^*$. The $E2$ decay transition strength has been determined to be $B(E2; 4^+_1\rightarrow 2^+_1) = 9.3(10)\, \text{W.u.}$ and compares favourably to shell model calculations.