Low-energy calculations for nuclear photodisintegration

In the Standard Solar Model a central role in the nucleosynthesis is played by reactions of the kind XZ1A11+XZ2A22→YZ1+Z2A1+A2+γ${}_{{Z_1}}^{{A_1}}{X_1} + {}_{{Z_2}}^{{A_2}}{X_2} \to {}_{{Z_1} + {Z_2}}^{{A_1} + {A_2}}Y + \gamma $, which enter the proton-proton chains. These reactions can also be stu...

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Main Authors: Deflorian S., Efros V.D., Leidemann W.
Format: Article
Language:English
Published: EDP Sciences 2016-01-01
Series:EPJ Web of Conferences
Online Access:http://dx.doi.org/10.1051/epjconf/201611308003
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spelling doaj-2bb3bdde5de5459fa09b6d3566bdab652021-08-02T09:19:50ZengEDP SciencesEPJ Web of Conferences2100-014X2016-01-011130800310.1051/epjconf/201611308003epjconf_fb2016_08003Low-energy calculations for nuclear photodisintegrationDeflorian S.Efros V.D.0Leidemann W.Russian Research Centre “Kurchatov” InstituteIn the Standard Solar Model a central role in the nucleosynthesis is played by reactions of the kind XZ1A11+XZ2A22→YZ1+Z2A1+A2+γ${}_{{Z_1}}^{{A_1}}{X_1} + {}_{{Z_2}}^{{A_2}}{X_2} \to {}_{{Z_1} + {Z_2}}^{{A_1} + {A_2}}Y + \gamma $, which enter the proton-proton chains. These reactions can also be studied through the inverse photodisintegration reaction. One option is to use the Lorentz Integral Transform approach, which transforms the continuum problem into a bound state-like one. A way to check the reliability of such methods is a direct calculation, for example using the Kohn Variational Principle to obtain the scattering wave function and then directly calculate the response function of the reaction.http://dx.doi.org/10.1051/epjconf/201611308003
collection DOAJ
language English
format Article
sources DOAJ
author Deflorian S.
Efros V.D.
Leidemann W.
spellingShingle Deflorian S.
Efros V.D.
Leidemann W.
Low-energy calculations for nuclear photodisintegration
EPJ Web of Conferences
author_facet Deflorian S.
Efros V.D.
Leidemann W.
author_sort Deflorian S.
title Low-energy calculations for nuclear photodisintegration
title_short Low-energy calculations for nuclear photodisintegration
title_full Low-energy calculations for nuclear photodisintegration
title_fullStr Low-energy calculations for nuclear photodisintegration
title_full_unstemmed Low-energy calculations for nuclear photodisintegration
title_sort low-energy calculations for nuclear photodisintegration
publisher EDP Sciences
series EPJ Web of Conferences
issn 2100-014X
publishDate 2016-01-01
description In the Standard Solar Model a central role in the nucleosynthesis is played by reactions of the kind XZ1A11+XZ2A22→YZ1+Z2A1+A2+γ${}_{{Z_1}}^{{A_1}}{X_1} + {}_{{Z_2}}^{{A_2}}{X_2} \to {}_{{Z_1} + {Z_2}}^{{A_1} + {A_2}}Y + \gamma $, which enter the proton-proton chains. These reactions can also be studied through the inverse photodisintegration reaction. One option is to use the Lorentz Integral Transform approach, which transforms the continuum problem into a bound state-like one. A way to check the reliability of such methods is a direct calculation, for example using the Kohn Variational Principle to obtain the scattering wave function and then directly calculate the response function of the reaction.
url http://dx.doi.org/10.1051/epjconf/201611308003
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AT efrosvd lowenergycalculationsfornuclearphotodisintegration
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