Rhenium and iridium targets prepared using a novel graphene loading technique

For accelerator targets, graphene films are an excellent material choice due to their high thermal conductivity, high temperature tolerance, low outgassing, mechanical integrity, and ease of handling. A variety of targets have been produced using graphene material as a backing or a host matrix. One...

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Main Authors: Greene John P., Gott Matthew, Fink Richard L., Pavlovsky Igor
Format: Article
Language:English
Published: EDP Sciences 2020-01-01
Series:EPJ Web of Conferences
Online Access:https://www.epj-conferences.org/articles/epjconf/pdf/2020/05/epjconf_intds2018_06001.pdf
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spelling doaj-969492d4d04e4078b5c674e484007af92021-08-02T13:05:56ZengEDP SciencesEPJ Web of Conferences2100-014X2020-01-012290600110.1051/epjconf/202022906001epjconf_intds2018_06001Rhenium and iridium targets prepared using a novel graphene loading techniqueGreene John P.Gott MatthewFink Richard L.Pavlovsky IgorFor accelerator targets, graphene films are an excellent material choice due to their high thermal conductivity, high temperature tolerance, low outgassing, mechanical integrity, and ease of handling. A variety of targets have been produced using graphene material as a backing or a host matrix. One of the unique advantages of the graphene film fabrication process is the capability to embed target materials, including refractory metals, in the nanoparticle form into a host graphene matrix during target preparation. Targets of natIr and natRe have been fabricated as nanoparticle loaded graphene targets for use in nuclear physics research. We have obtained beam time to evaluate target performance as well as production yields and nuclear decay properties via the natRe(a,2n)186Ir and natIr(a,3n)194Au reactions, respectively. These rhenium and iridium targets will be irradiated using the ATLAS accelerator and gamma rays measured in-place using the high-precision gamma-ray spectroscopy capabilities of Gammasphere and further analyzed using a multi-parameter detector system. Future plans include the preparation of isotopic targets of these two elements.https://www.epj-conferences.org/articles/epjconf/pdf/2020/05/epjconf_intds2018_06001.pdf
collection DOAJ
language English
format Article
sources DOAJ
author Greene John P.
Gott Matthew
Fink Richard L.
Pavlovsky Igor
spellingShingle Greene John P.
Gott Matthew
Fink Richard L.
Pavlovsky Igor
Rhenium and iridium targets prepared using a novel graphene loading technique
EPJ Web of Conferences
author_facet Greene John P.
Gott Matthew
Fink Richard L.
Pavlovsky Igor
author_sort Greene John P.
title Rhenium and iridium targets prepared using a novel graphene loading technique
title_short Rhenium and iridium targets prepared using a novel graphene loading technique
title_full Rhenium and iridium targets prepared using a novel graphene loading technique
title_fullStr Rhenium and iridium targets prepared using a novel graphene loading technique
title_full_unstemmed Rhenium and iridium targets prepared using a novel graphene loading technique
title_sort rhenium and iridium targets prepared using a novel graphene loading technique
publisher EDP Sciences
series EPJ Web of Conferences
issn 2100-014X
publishDate 2020-01-01
description For accelerator targets, graphene films are an excellent material choice due to their high thermal conductivity, high temperature tolerance, low outgassing, mechanical integrity, and ease of handling. A variety of targets have been produced using graphene material as a backing or a host matrix. One of the unique advantages of the graphene film fabrication process is the capability to embed target materials, including refractory metals, in the nanoparticle form into a host graphene matrix during target preparation. Targets of natIr and natRe have been fabricated as nanoparticle loaded graphene targets for use in nuclear physics research. We have obtained beam time to evaluate target performance as well as production yields and nuclear decay properties via the natRe(a,2n)186Ir and natIr(a,3n)194Au reactions, respectively. These rhenium and iridium targets will be irradiated using the ATLAS accelerator and gamma rays measured in-place using the high-precision gamma-ray spectroscopy capabilities of Gammasphere and further analyzed using a multi-parameter detector system. Future plans include the preparation of isotopic targets of these two elements.
url https://www.epj-conferences.org/articles/epjconf/pdf/2020/05/epjconf_intds2018_06001.pdf
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