Skoryk Mykola

Dr. Skoryk Mykola

orcid

Research Focus & Metrics

Academic Career Length

25Years (2002-Present)

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

Representative Publications

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16 September 2016 in ChemistrySelect
Verified
Journal Article
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NSNataliya D. Shcherban
Nataliya D. Shcherban
SFSvitlana M. Filonenko
Svitlana M. Filonenko
MOMykhailo L. Ovcharov
Mykhailo L. Ovcharov
AMAndriy M. Mishura
Andriy M. Mishura
SMSkoryk Mykola
Skoryk Mykola
DMDmitry Yu. Murzin
Dmitry Yu. Murzin

1 December 2015 in Materials Science and Engineering: B
Verified
Journal Article
Closed access
MOM. Ovcharov
M. Ovcharov
NSN. Shcherban
N. Shcherban
SFS. Filonenko
S. Filonenko
AMA. Mishura
A. Mishura
SMSkoryk Mykola
Skoryk Mykola
VGV. Granchak
V. Granchak

14 January 2022 in The International Journal of Advanced Manufacturing Technology
Verified
Journal Article
Closed access
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Anatoly Viktorovych ZavdoveevAnatoly Viktorovych Zavdoveev
Anatoly Viktorovych Zavdoveev
VPValeriy Pozniakov
Valeriy Pozniakov
TBThierry Baudin
Thierry Baudin
Hyoung Seop KimHyoung Seop Kim
Hyoung Seop Kim
IKIlya Klochkov
Ilya Klochkov
SMSkoryk Mykola
Skoryk Mykola

1 January 2020 in Materials Chemistry and Physics
Verified
Journal Article
Closed access
LVLudmila V. Vovchenko
Ludmila V. Vovchenko
OLOleg Lozitsky
Oleg Lozitsky
LMLudmila Matzui
Ludmila Matzui
VOViktor Oliynyk
Viktor Oliynyk
VZVolodymyr Zagorodnii
Volodymyr Zagorodnii
SMSkoryk Mykola
Skoryk Mykola

1 February 2019 in Astrobiology
Verified
Journal Article
Closed access
OPOlga Podolich
Olga Podolich
OKOlga Kukharenko
Olga Kukharenko
AHAndriy Haidak
Andriy Haidak
IZIryna Zaets
Iryna Zaets
LZLeonid Zaika
Leonid Zaika
JVJean-Pierre Paul de Vera
Jean-Pierre Paul de Vera
A kombucha multimicrobial culture (KMC) was exposed to simulated Mars-like conditions in low Earth orbit (LEO). The study was part of the BIOlogy and Mars EXperiment (BIOMEX), which was accommodated in the European Space Agency's EXPOSE-R2 facility, outside the International Space Station. The aim of the study was to investigate the capability of a KMC microecosystem to survive simulated Mars-like conditions in LEO. During the 18-month exposure period, desiccated KMC samples, represented by living cellulose-based films, were subjected to simulated anoxic Mars-like conditions and ultraviolet (UV) radiation, as prevalent at the surface of present-day Mars. Postexposure analysis demonstrated that growth of both the bacterial and yeast members of the KMC community was observed after 60 days of incubation; whereas growth was detected after 2 days in the initial KMC. The KMC that was exposed to extraterrestrial UV radiation showed degradation of DNA, alteration in the composition and structure of the cellular membranes, and an inhibition of cellulose synthesis. In the “space dark control” (exposed to LEO conditions without the UV radiation), the diversity of the microorganisms that survived in the biofilm was reduced compared with the ground-based controls. This was accompanied by structural dissimilarities in the extracellular membrane vesicles. After a series of subculturing, the revived communities restored partially their structure and associated activities.

1 April 2015 in Journal of Photochemistry and Photobiology A: Chemistry
Verified
Journal Article
Closed access
AKAndriy V. Kozytskiy
Andriy V. Kozytskiy
OSOleksandr Stroyuk
Oleksandr Stroyuk
SMSkoryk Mykola
Skoryk Mykola
VDVolodymyr Dzhagan
Volodymyr Dzhagan
SKStepan Ya. Kuchmiy
Stepan Ya. Kuchmiy
DZDietrich R.T. Zahn
Dietrich R.T. Zahn