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Der Einfluss der Parameter des Zinkoxid‐Schichtabscheidungsprozesses unter Verwendung der Atomlagenabscheidungsmethode auf die physikalischen und mechanischen Eigenschaften von 316LVM‐Stahl
Author(s) -
Basiaga M.,
Walke W.,
SambokKiełbowicz A.,
Paszenda Z.,
Kaczmarek M.,
Taratuta A.,
Szindler M.,
Ziębowicz B.
Publication year - 2020
Publication title -
materialwissenschaft und werkstofftechnik
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 0.285
H-Index - 38
eISSN - 1521-4052
pISSN - 0933-5137
DOI - 10.1002/mawe.201900232
Subject(s) - materials science , atomic layer deposition , layer (electronics) , coating , surface roughness , substrate (aquarium) , wetting , deposition (geology) , surface finish , nanoindentation , oxide , composite material , nanotechnology , metallurgy , paleontology , oceanography , sediment , biology , geology
The analysis of most of the work on the use of surgical implants shows that the physical, chemical and mechanical properties of the implant surface determine the effectiveness of their use. Therefore, in the currently conducted research, the greatest attention is focused on the development of coating conditions on the surface of implants, limiting, among others, biofilm formation. In addition to the improvement of electrochemical properties, an important issue related to the production of layers is also an appropriate set of physical and mechanical properties. Therefore, the paper attempts to assess the physical and mechanical properties of the applied zinc oxide layers on the LVM 316 steel substrate using the atomic layer deposition (ALD) method. As part of the assessment of mechanical properties of the resulting surface layers, the tests of adhesion to the metal substrate (scratch test) were carried out. In turn, as part of the physical properties assessment, surface roughness tests (atomic force microscopy – AFM) and its wettability were carried out. Such a comprehensive approach will allow the development of an antibacterial layer with optimal physical and mechanical properties for applications with metal implants.