Michal Ciesla

Dr. Michal Ciesla

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Research Focus & Metrics

Academic Career Length

26Years (2001-Present)

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

Representative Publications

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5 May 2011 in Langmuir
Verified
Journal Article
Closed access
ZAZbigniew Adamczyk
Zbigniew Adamczyk
JBJakub Barbasz
Jakub Barbasz
MCMichal Ciesla
Michal Ciesla

24 June 2010 in Langmuir
Verified
Journal Article
Closed access
ZAZbigniew Adamczyk
Zbigniew Adamczyk
JBJakub Barbasz
Jakub Barbasz
MCMichal Ciesla
Michal Ciesla

11 May 2022 in Advances in Colloid and Interface Science
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Journal Article
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PKPiotr Kubala
Piotr Kubala
PBPiotr Batys
Piotr Batys
JBJakub Barbasz
Jakub Barbasz
PWPaweł Weroński
Paweł Weroński
MCMichal Ciesla
Michal Ciesla

8 May 2013 in Physical Review E
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Journal Article
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MCMichal Ciesla
Michal Ciesla
Random sequential adsorption (RSA) of polymer, modeled as a chain of identical spheres, is systematically studied. In order to control precisely anisotropy and number of degrees of freedom, two different kinds of polymers are used. In the first one, monomers are placed along a straight line, whereas in the second, relative orientations of particles are random. Such polymers fill a flat homogeneous surface randomly. The paper focuses on maximal random coverage ratio and adsorption kinetics dependence on polymer size, shape anisotropy, and numbers of degrees of freedom. Obtained results were discussed and compared with other numerical experiments and theoretical predictions.

24 May 2013 in Langmuir
Verified
Journal Article
Closed access
MCMichal Ciesla
Michal Ciesla
ZAZbigniew Adamczyk
Zbigniew Adamczyk
JBJakub Barbasz
Jakub Barbasz
Monika WasilewskaMonika Wasilewska
Monika Wasilewska

28 July 2016 in The Journal of Chemical Physics
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Journal Article
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MCMichal Ciesla
Michal Ciesla
GPGrzegorz Paja̧k
Grzegorz Paja̧k
RZRobert M. Ziff
Robert M. Ziff
Random sequential adsorption of various two dimensional objects is studied in order to find a shape which maximizes the saturated packing fraction. This investigation was begun in our previous paper [Cieśla et al., Phys. Chem. Chem. Phys. 17, 24376 (2015)], where the densest packing was studied for smoothed dimers. Here this shape is compared with the smoothed n-mers, spherocylinders, and ellipses. It is found that the highest packing fraction out of the studied shapes is 0.584 05 ± 0.0001 and is obtained for ellipses having long-to-short axis ratio of 1.85 ± 0.07.