Study on alpha decay chains of Z = 122 superheavy nuclei with deformation effects and Langer modification
G. Naveya, S. I. A. Philominraj, A. Stephen

TL;DR
This paper investigates alpha decay chains of Z=122 superheavy nuclei, emphasizing deformation effects and Langer modification, to aid experimental synthesis and decay observation of these elusive isotopes.
Contribution
It introduces a detailed theoretical analysis of alpha decay chains considering nuclear deformation and Langer modification, providing predictions aligned with phenomenological models.
Findings
Decay half-lives are sensitive to nuclear deformation and orientation.
Results agree with existing phenomenological models.
Provides decay characteristics useful for experimental isotope synthesis.
Abstract
In this work study on alpha decay chains emerging from isotopes of Z = 122 superheavy nuclei is carried out with emphasize on nuclear deformations and Langer modification. The interest in this particular superheavy nuclei is due to the recent experimental efforts to synthesize the isotope ^{299}120 in a fusion reaction at the velocity filter SHIP (GSI Darmstadt), which makes synthesis of Z = 122 nuclei to occur in the near future, and in turn will give the experimentalist the chance observe the decays associated with the isotopes of this nuclei. We perform our calculations by choosing the Woods Saxon potential for nuclear interaction, along with Coulomb potential and centrifugal potential within the framework of the WKB method. When the centrifugal term is taken in the total potential and WKB integral is done over 1D radial coordinate, it requires the use of Langer modification wherein…
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Taxonomy
TopicsNuclear physics research studies · Quantum Chromodynamics and Particle Interactions · Advanced NMR Techniques and Applications
