Cluster decay half-lives using modified generalized liquid drop model (MGLDM) with different pre-formation factors

Cluster decay from 212–240 Pa, 219–245 Np, 228–246 Pu, 230–249 Am, and 232–252 Cm has been studied by including three different pre-formation factors that depend on cluster size, atomic number of cluster and daughter nuclei, and Q value in MGLDM, an approach developed by modifying GLDM with proximit...

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Published inIndian journal of physics Vol. 95; no. 1; pp. 121 - 131
Main Authors Santhosh, K. P., Jose, Tinu Ann
Format Journal Article
LanguageEnglish
Published New Delhi Springer India 01.01.2021
Springer Nature B.V
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Abstract Cluster decay from 212–240 Pa, 219–245 Np, 228–246 Pu, 230–249 Am, and 232–252 Cm has been studied by including three different pre-formation factors that depend on cluster size, atomic number of cluster and daughter nuclei, and Q value in MGLDM, an approach developed by modifying GLDM with proximity 77 potential. In MGLDM, where Q value-dependent pre-formation factor is added, the standard deviation of logarithmic half-lives was found to be 0.83, and the experimental half-lives were successfully reproduced using MGLDM with cluster size-dependent, and atomic number of cluster and daughter nuclei-dependent pre-formation factor with a standard deviation of 0.58 and 0.63, respectively. The half-lives of heavy elements in trans-lead region emitting 22 Ne, 24 Ne, 26 Mg, 28 Mg, 32 Si and 33 Si clusters, which have not been experimentally determined so far, have been predicted by incorporating three types of pre-formation factors to MGLDM. As all the predicted half-lives are below 10 30 s and are within the experimentally measurable range, we hope that our present predictions would be helpful for future studies in this field.
AbstractList Cluster decay from 212–240 Pa, 219–245 Np, 228–246 Pu, 230–249 Am, and 232–252 Cm has been studied by including three different pre-formation factors that depend on cluster size, atomic number of cluster and daughter nuclei, and Q value in MGLDM, an approach developed by modifying GLDM with proximity 77 potential. In MGLDM, where Q value-dependent pre-formation factor is added, the standard deviation of logarithmic half-lives was found to be 0.83, and the experimental half-lives were successfully reproduced using MGLDM with cluster size-dependent, and atomic number of cluster and daughter nuclei-dependent pre-formation factor with a standard deviation of 0.58 and 0.63, respectively. The half-lives of heavy elements in trans-lead region emitting 22 Ne, 24 Ne, 26 Mg, 28 Mg, 32 Si and 33 Si clusters, which have not been experimentally determined so far, have been predicted by incorporating three types of pre-formation factors to MGLDM. As all the predicted half-lives are below 10 30 s and are within the experimentally measurable range, we hope that our present predictions would be helpful for future studies in this field.
Cluster decay from 212–240Pa, 219–245Np, 228–246Pu, 230–249Am, and 232–252Cm has been studied by including three different pre-formation factors that depend on cluster size, atomic number of cluster and daughter nuclei, and Q value in MGLDM, an approach developed by modifying GLDM with proximity 77 potential. In MGLDM, where Q value-dependent pre-formation factor is added, the standard deviation of logarithmic half-lives was found to be 0.83, and the experimental half-lives were successfully reproduced using MGLDM with cluster size-dependent, and atomic number of cluster and daughter nuclei-dependent pre-formation factor with a standard deviation of 0.58 and 0.63, respectively. The half-lives of heavy elements in trans-lead region emitting 22Ne, 24Ne, 26Mg, 28Mg, 32Si and 33Si clusters, which have not been experimentally determined so far, have been predicted by incorporating three types of pre-formation factors to MGLDM. As all the predicted half-lives are below 1030s and are within the experimentally measurable range, we hope that our present predictions would be helpful for future studies in this field.
Author Santhosh, K. P.
Jose, Tinu Ann
Author_xml – sequence: 1
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  surname: Santhosh
  fullname: Santhosh, K. P.
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  organization: School of Pure and Applied Physics, Kannur University
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  givenname: Tinu Ann
  surname: Jose
  fullname: Jose, Tinu Ann
  organization: School of Pure and Applied Physics, Kannur University
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Alpha radioactivity
Half-life
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Snippet Cluster decay from 212–240 Pa, 219–245 Np, 228–246 Pu, 230–249 Am, and 232–252 Cm has been studied by including three different pre-formation factors that...
Cluster decay from 212–240Pa, 219–245Np, 228–246Pu, 230–249Am, and 232–252Cm has been studied by including three different pre-formation factors that depend on...
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SubjectTerms Astrophysics and Astroparticles
Atomic properties
Clusters
Decay
Drops (liquids)
Half-life
Heavy elements
Original Paper
Physics
Physics and Astronomy
Standard deviation
Title Cluster decay half-lives using modified generalized liquid drop model (MGLDM) with different pre-formation factors
URI https://link.springer.com/article/10.1007/s12648-020-01685-8
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