Malgorzata Kalisz

Dr. Malgorzata Kalisz


Research Focus & Metrics

Academic Career Length

19Years (2008-Present)

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

Representative Publications

View All Publications
1 September 2016 in Applied Surface Science
Verified
Journal Article
Closed access
Michal MazurMichal Mazur
Michal Mazur
Damian WojcieszakDamian Wojcieszak
Damian Wojcieszak
DKD. Kaczmarek
D. Kaczmarek
JDJaroslaw Domaradzki
Jaroslaw Domaradzki
SSS. Song
S. Song
APA. Poniedzialek
A. Poniedzialek

1 May 2014 in Applied Surface Science
Verified
Journal Article
Closed access
Michal MazurMichal Mazur
Michal Mazur
MSM. Szymańska
M. Szymańska
DKD. Kaczmarek
D. Kaczmarek
MKMalgorzata Kalisz
Malgorzata Kalisz
Damian WojcieszakDamian Wojcieszak
Damian Wojcieszak
FPF. Placido
F. Placido

1 February 2017 in Materials Science and Engineering: C
Verified
Journal Article
Closed access
Damian WojcieszakDamian Wojcieszak
Damian Wojcieszak
Michal MazurMichal Mazur
Michal Mazur
MKMalgorzata Kalisz
Malgorzata Kalisz
MGM. Grobelny
M. Grobelny


1 September 2015 in Materials Science-Poland
Verified
Journal Article
Open access
PDF file
Damian WojcieszakDamian Wojcieszak
Damian Wojcieszak
Michal MazurMichal Mazur
Michal Mazur
JIJoanna Indyka
Joanna Indyka
AJAleksandra Jurkowska
Aleksandra Jurkowska
MKMalgorzata Kalisz
Malgorzata Kalisz
JDJaroslaw Domaradzki
Jaroslaw Domaradzki
Titanium dioxide thin films were prepared using two types of magnetron sputtering processes: conventional and with modulated plasma. The films were deposited on SiO2 and Si substrates. X-ray diffraction measurements of prepared coatings revealed that the films prepared using both methods were nanocrystalline. However, the coatings deposited using conventional magnetron sputtering had anatase structure, while application of sputtering with modulated plasma made possible to obtain films with rutile phase. Investigations performed with the aid of scanning electron microscope showed significant difference in the surface morphology as well as the microstructure at the thin film cross-sections. The mechanical properties of the obtained coatings were determined on the basis of nanoindentation and abrasion resistance tests. The hardness was much higher for the films with the rutile structure, while the scratch resistance was similar in both cases. Optical properties were evaluated on the basis of transmittance measurements and showed that both coatings were well transparent in a visible wavelength range. Refractive index and extinction coefficient were higher for TiO2 with rutile structure.