Understanding Fragmentation of Organic Small Molecules in Atom Probe Tomography

In atom probe tomography of molecular organic materials, field ionization of either entire molecules or molecular fragments can occur, but the mechanism governing this behavior was not previously understood. This work explains when a doubly ionized small molecule organic material is expected to unde...

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Veröffentlicht in:The journal of physical chemistry letters 2021-10, Vol.12 (42), p.10437-10443
Hauptverfasser: Bingham, Jacob T, Proudian, Andrew P, Vyas, Shubham, Zimmerman, Jeramy D
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container_issue 42
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container_title The journal of physical chemistry letters
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creator Bingham, Jacob T
Proudian, Andrew P
Vyas, Shubham
Zimmerman, Jeramy D
description In atom probe tomography of molecular organic materials, field ionization of either entire molecules or molecular fragments can occur, but the mechanism governing this behavior was not previously understood. This work explains when a doubly ionized small molecule organic material is expected to undergo fragmentation. We find that multiple detection events arising from post-ionization fragmentation of a parent molecular dication into two daughter ions is well explained by the free energy and geometries of the molecules computed using density functional theory. Of the systems studied, exergonic free energies for formation of the daughter ions, smaller activation energies for dissociation, and increases in bond length are all found to be quantitative predictors for ion fragmentation. This work expands the applicability of atom probe tomography to organic materials by increasing the fundamental understanding of processes occurring during this analysis technique.
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subjects atom probe tomography
density functional theory
fragmentation
MATERIALS SCIENCE
organic
Physical Insights into Materials and Molecular Properties
small molecule
title Understanding Fragmentation of Organic Small Molecules in Atom Probe Tomography
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