Jan Pinc

Mr. Jan Pinc

Institute of Physics of the Czech Academy of Sciences, Na Slovance 1999/2, Prague 8, 182 21, Czech Republic
+1
orcid

Research Focus & Metrics

Academic Career Length

12Years (2015-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 August 2020 in Journal of the Mechanical Behavior of Biomedical Materials
Verified
Journal Article
Closed access
JČJaroslav Čapek
Jaroslav Čapek
JKJiri Kubasek
Jiri Kubasek
JPJan Pinc
Jan Pinc
JDJan Drahokoupil
Jan Drahokoupil
MČMiroslav Čavojský
Miroslav Čavojský
DVDalibor Vojtěch
Dalibor Vojtěch

1 September 2021 in Materials Science and Engineering: A
Verified
Journal Article
Closed access
JPJan Pinc
Jan Pinc
AŠAndrea Školáková
Andrea Školáková
PVPetr VeřTát
Petr VeřTát
JDJan Duchoň
Jan Duchoň
JKJiří Kubásek
Jiří Kubásek
JČJaroslav Čapek
Jaroslav Čapek

1 July 2021 in Corrosion Science
Verified
Journal Article
Closed access
VHVojtech Hybasek
Vojtech Hybasek
JKJiri Kubasek
Jiri Kubasek
JČJaroslav Čapek
Jaroslav Čapek
DADino Alferi
Dino Alferi
JPJan Pinc
Jan Pinc
JFJaroslav Fojt
Jaroslav Fojt

1 April 2020 in Materials Characterization
Verified
Journal Article
Closed access
JČJaroslav Čapek
Jaroslav Čapek
JKJiri Kubasek
Jiri Kubasek
JPJan Pinc
Jan Pinc
JMJan Maňák
Jan Maňák
OMOrsolya Molnárová
Orsolya Molnárová
MČMiroslav Čavojský
Miroslav Čavojský

27 November 2019 in Materials
Verified
Journal Article
Open access
PDF file
JKJiri Kubasek
Jiri Kubasek
DDDrahomír Dvorský
Drahomír Dvorský
JČJaroslav Čapek
Jaroslav Čapek
JPJan Pinc
Jan Pinc
DVDalibor Vojtěch
Dalibor Vojtěch
Zinc-based alloys represent one of the most highly developed areas regarding biodegradable materials. Despite this, some general deficiencies such as cytotoxicity and poor mechanical properties (especially elongation), are not properly solved. In this work, a Zn-5Mg (5 wt.% Mg) composite material with tailored mechanical and superior corrosion properties is prepared by powder metallurgy techniques. Pure Zn and Mg are mixed and subsequently compacted by extrusion at 200 °C and an extrusion ratio of 10. The final product possesses appropriate mechanical properties (tensile yield strength = 148 MPa, ultimate tensile strength = 183 MPa, and elongation = 16%) and decreased by four times the release of Zn in the initial stage of degradation compared to pure Zn, which can highly decrease cytotoxicity effects and therefore positively affect the initial stage of the healing process.

30 July 2022 in Materials
Verified
Journal Article
Open access
PDF file
DNDavid Nečas
David Nečas
IMIvo Marek
Ivo Marek
JPJan Pinc
Jan Pinc
DVDalibor Vojtěch
Dalibor Vojtěch
JKJiri Kubasek
Jiri Kubasek
Zinc and its alloys are considered as promising materials for the preparation of biodegradable medical devices (stents and bone fixation screws) due to their enhanced biocompatibility. These materials must achieve an ideal combination of mechanical and corrosion properties that can be influenced by alloying or thermomechanical processes. This paper presents the effects of different mechanical alloying (MA) parameters on the composition of Zn-1Mg powder. At the same time, this study describes the influence of preparation by MA on Zn-6Mg and Zn-16Mg alloys. The selected powders were compacted by the spark plasma sintering (SPS) method. Subsequently, their microstructures were studied and their mechanical properties were tested. The overall process led to a significant grain refinement (629 ± 274 nm for Zn-1Mg) and the formation of new intermetallic phases (Mg2Zn11, MgZn2). The compressive properties of the sintered samples were mainly related to the concentration of the alloying elements, where an increase in concentration led to an improvement in strength but a deterioration in ductility. According to the obtained results, the best properties were obtained for the Zn-1Mg alloy.