Developing aluminum molecular plating for neutron-induced reaction target fabrication

[Formula: see text]Al is an important radionuclide for research on stellar nucleosynthesis in the Galaxy and the environment of the early solar system. Computational simulations involving the production and destruction of [Formula: see text]Al in stellar nucleosynthesis and supernovae rely on accurate nuclear reaction network data. Some of the destruction channels via neutron-induced reactions for [Formula: see text]Al either have no measured data or discrepancies in the measured data. The Low Energy (n,Z) instrument at the Los Alamos National Laboratory can perform these measurements on neutron-induced charged-particle reactions; however, a thin and uniform target is required. Such a target can be manufactured via molecular plating, but this process needs to be optimized. This study was able to determine a procedure that allows for the production of an Al target on a 1 [Formula: see text]m thick Ti foil with a >70% yield. Adding a small amount of Ce in the initial plating solution and increasing the drying time resulted in a thin, uniform, and physically stable Al target.

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Publication Details

Journal
Scientific Reports
Published
2026-05-21
DOI
https://doi.org/10.1038/s41598-026-52717-y
Primary Topic
Nuclear physics research studies
Type
article
Field-Weighted Citation Impact
0.00

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article

Developing aluminum molecular plating for neutron-induced reaction target fabrication

Khachatur Manukyan, Veronika Mocko, Scott Essenmacher, Sean A. Kuvin et al.
Scientific Reports
Nuclear physics research studies
article

Developing aluminum molecular plating for neutron-induced reaction target fabrication

Khachatur Manukyan, Veronika Mocko, Scott Essenmacher, Sean A. Kuvin, Hye Young Lee
article en

Abstract

[Formula: see text]Al is an important radionuclide for research on stellar nucleosynthesis in the Galaxy and the environment of the early solar system. Computational simulations involving the production and destruction of [Formula: see text]Al in stellar nucleosynthesis and supernovae rely on accurate nuclear reaction network data. Some of the destruction channels via neutron-induced reactions for [Formula: see text]Al either have no measured data or discrepancies in the measured data. The Low Energy (n,Z) instrument at the Los Alamos National Laboratory can perform these measurements on neutron-induced charged-particle reactions; however, a thin and uniform target is required. Such a target can be manufactured via molecular plating, but this process needs to be optimized. This study was able to determine a procedure that allows for the production of an Al target on a 1 [Formula: see text]m thick Ti foil with a >70% yield. Adding a small amount of Ce in the initial plating solution and increasing the drying time resulted in a thin, uniform, and physically stable Al target.

Scientific Reports
University of Notre Dame (US), Los Alamos National Laboratory (US), Los Alamos National Security (United States) (US)
National Nuclear Security Administration, Los Alamos National Laboratory
Openalex Percentile: Top 6%
Nuclear physics research studies
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