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  1. Home > Articles & Issues >
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  3. Modeling of evaporat ...
Conference paper

Modeling of evaporation of macroparticles of vacuum arcs by an electron beam

Iryna Litovko ORCID (1) (2), Martin Rudolph ORCID (1), André Anders ORCID (1) (3), Alexey Goncharov ORCID (4)
(1) Leibniz Institute of Surface Engineering
(2) Institute for Nuclear Research
(3) Felix Bloch Institute of Solid State Physics
(4) Institute of Physics NAS of Ukraine
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Open on Zenodo
Submitted on
August 25, 2025
Accepted on
October 31, 2025
Published on
February 10, 2026
Last modified on
February 11, 2026
Special issue 1
ICPIG 2025
DOI
10.46298/ops.16405
License
Attribution 4.0 International (CC BY 4.0)
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Modeling of evaporation of macroparticles of vacuum arcs by an electron beam

Iryna Litovko ORCID (1) (2), Martin Rudolph ORCID (1), André Anders ORCID (1) (3), Alexey Goncharov ORCID (4)
(1) Leibniz Institute of Surface Engineering
(2) Institute for Nuclear Research
(3) Felix Bloch Institute of Solid State Physics
(4) Institute of Physics NAS of Ukraine
Abstract
The evaporation of droplets in an arc plasma flow under the action of an electron beam injected into the arc plasma and the condition of direct heating of microdroplets by beam electrons are considered. Analytical modeling shows that droplets ≤1 μm in size can be completely evaporated over time scales typical for cathodic arc deposition systems. It is shown that small microdroplets evaporate more intensively. The lower limit working points in terms of plasma electron density, and the electron energy and density of the injected energetic electrons required for droplet evaporation are found.
Keywords
  • plasma optics
  • vacuum-arc discharge
  • droplets
  • fast electrons
  • film deposition
  • droplet evaporation
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