Kastrati

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M. Sc.
Gylxhane Kastrati

Research assistant

Room: MBZ 410
Group: nanoelectronics for biosensor technologies
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Gylxhane Kastrati is a PhD candidate in Analytical Chemistry at the University of Pardubice in the Czech Republic. She holds a Bachelor's and Master's degree in Chemistry from the University of Pristina "Hasan Pristina" in Kosovo. Her doctoral research focuses on developing new immunoassays readable by electrochemical platforms for detecting protein biomarkers. Gylxhane joined the Chair of Materials Science and Nanotechnology as an Erasmus+ student. Currently, she is working on a project to investigate the effects of nanostructured surfaces on stem cell differentiation and antibacterial properties. By manipulating the surface topography and mechanical characteristics, understand how these factors influence cellular behavior. Additionally, the study explores the use of hydrogel nanocarriers for drug delivery, focusing on the relationship between particle elasticity and cellular uptake. The ongoing research could impact advancements in regenerative medicine and pharmaceutical research.




Kastrati

ORCID Google Scholar Linkedin ResearchGate

M. Sc.
Gylxhane Kastrati

Research assistant

Room: MBZ 410
Group: nanoelectronics for biosensor technologies
Download contact:

Gylxhane Kastrati is a PhD candidate in Analytical Chemistry at the University of Pardubice in the Czech Republic. She holds a Bachelor's and Master's degree in Chemistry from the University of Pristina "Hasan Pristina" in Kosovo. Her doctoral research focuses on developing new immunoassays readable by electrochemical platforms for detecting protein biomarkers. Gylxhane joined the Chair of Materials Science and Nanotechnology as an Erasmus+ student. Currently, she is working on a project to investigate the effects of nanostructured surfaces on stem cell differentiation and antibacterial properties. By manipulating the surface topography and mechanical characteristics, understand how these factors influence cellular behavior. Additionally, the study explores the use of hydrogel nanocarriers for drug delivery, focusing on the relationship between particle elasticity and cellular uptake. The ongoing research could impact advancements in regenerative medicine and pharmaceutical research.