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Preliminary Results for Observation of Radiative Double-Electron Capture by F$^9+,8+}$ on Graphene

Published

Author(s)

David La Mantia, Asghar Kayani, Khushi Bhatt, John Tanis

Abstract

Radiative double-electron capture, which can be considered the inverse of double photoionization, has been investigated for 2.11 MeV/u F9+ and F8+ projectiles colliding with the two-dimensional target single-layer graphene. Preliminary results for the cross sections are obtained and presented and compared with our previous measurements for the one-dimensional gas targets N2 and Ne, with the three-dimensional target thin-foil C, and with the most accurate theoretical results that currently exist. The graphene results reported here are reasonable when compared with the F9+ +N2, Ne results given the thicknesses of the respective targets, being larger by about a factor of four.
Citation
Atoms
Volume
11
Issue
1

Keywords

ion–atom collisions, electron capture, graphene

Citation

La Mantia, D. , Kayani, A. , Bhatt, K. and Tanis, J. (2022), Preliminary Results for Observation of Radiative Double-Electron Capture by F$^{9+,8+}$ on Graphene, Atoms, [online], https://doi.org/10.3390/atoms11010006, https://tsapps.nist.gov/publication/get_pdf.cfm?pub_id=935720 (Accessed October 14, 2025)

Issues

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Created December 31, 2022, Updated May 7, 2024
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