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Influence of the magnetic field on the extension of the ionization region in high power impulse magnetron sputtering discharges

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    SYSNO ASEP0574651
    Document TypeJ - Journal Article
    R&D Document TypeJournal Article
    Subsidiary JČlánek ve WOS
    TitleInfluence of the magnetic field on the extension of the ionization region in high power impulse magnetron sputtering discharges
    Author(s) Antunes, V.G. (FR)
    Rudolph, M. (DE)
    Kapran, Anna (FZU-D) ORCID
    Hajihoseini, H. (NL)
    Raadu, M.A. (SE)
    Brenning, N. (SE)
    Gudmundsson, J.T. (IS)
    Lundin, D. (SE)
    Minea, T. (FR)
    Number of authors9
    Article number075016
    Source TitlePlasma Sources Science & Technology. - : Institute of Physics Publishing - ISSN 0963-0252
    Roč. 32, č. 7 (2023)
    Number of pages10 s.
    Languageeng - English
    CountryUS - United States
    Keywordsmagnetron sputtering ; HiPIMS ; ionization region ; magnetic field ; optical emission spectroscopy
    Subject RIVBL - Plasma and Gas Discharge Physics
    OECD categoryFluids and plasma physics (including surface physics)
    Method of publishingLimited access
    Institutional supportFZU-D - RVO:68378271
    UT WOS001038727700001
    EID SCOPUS85166488477
    DOI10.1088/1361-6595/ace847
    AnnotationThe high power impulse magnetron sputtering (HiPIMS) discharge brings about increased ionization of the sputtered atoms due to an increased electron density and efficient electron energization during the active period of the pulse. The ionization is effective mainly within the electron trapping zone, an ionization region (IR), defined by the magnet configuration. Here, the average extension and the volume of the IR are determined based on measuring the optical emission from an excited level of the argon working gas atoms. For particular HiPIMS conditions, argon species ionization and excitation processes are assumed to be proportional. Hence, the light emission from certain excited atoms is assumed to reflect the IR extension. The light emission was recorded above a 100 mm diameter titanium target through a 763 nm bandpass filter using a gated camera.
    WorkplaceInstitute of Physics
    ContactKristina Potocká, potocka@fzu.cz, Tel.: 220 318 579
    Year of Publishing2024
    Electronic addresshttps://doi.org/10.1088/1361-6595/ace847
Number of the records: 1  

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