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Cyclodextrins and Their Polymers Affect the Lipid Membrane Permeability and Increase Levofloxacin’s Antibacterial Activity In Vitro

Cyclodextrins (CDs) are promising drug carriers that are used in medicine. We chose CDs with different substituents (polar/apolar, charged/neutral) to obtain polymers (CDpols) with different properties. CDpols are urethanes with average Mw of ~120 kDa; they form nanoparticles 100–150 nm in diameter...

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Autores principales: Skuredina, Anna A., Tychinina, Anastasia S., Le-Deygen, Irina M., Golyshev, Sergey A., Kopnova, Tatiana Yu., Le, Nikolay T., Belogurova, Natalya G., Kudryashova, Elena V.
Formato: Online Artículo Texto
Lenguaje:English
Publicado: MDPI 2022
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC9654586/
https://www.ncbi.nlm.nih.gov/pubmed/36365470
http://dx.doi.org/10.3390/polym14214476
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author Skuredina, Anna A.
Tychinina, Anastasia S.
Le-Deygen, Irina M.
Golyshev, Sergey A.
Kopnova, Tatiana Yu.
Le, Nikolay T.
Belogurova, Natalya G.
Kudryashova, Elena V.
author_facet Skuredina, Anna A.
Tychinina, Anastasia S.
Le-Deygen, Irina M.
Golyshev, Sergey A.
Kopnova, Tatiana Yu.
Le, Nikolay T.
Belogurova, Natalya G.
Kudryashova, Elena V.
author_sort Skuredina, Anna A.
collection PubMed
description Cyclodextrins (CDs) are promising drug carriers that are used in medicine. We chose CDs with different substituents (polar/apolar, charged/neutral) to obtain polymers (CDpols) with different properties. CDpols are urethanes with average Mw of ~120 kDa; they form nanoparticles 100–150 nm in diameter with variable ζ-potential. We studied the interaction of CD and CDpols with model (liposomal) and bacterial membranes. Both types of CD carriers cause an increase in the liposomal membrane permeability, and for polymers, this effect was almost two times stronger. The formation of CD/CDpols complexes with levofloxacin (LV) enhances LV’s antibacterial action 2-fold in vitro on five bacterial strains. The most pronounced effect was determined for LV-CD complexes. LV-CDs and LV-CDpols adsorb on bacteria, and cell morphology influences this process dramatically. According to TEM studies, the rough surface and proteinaceous fimbria of Gram-negative E. coli facilitate the adsorption of CD particles, whereas the smooth surface of Gram-positive bacteria impedes it. In comparison with LV-CDs, LV-CDpols are adsorbed 15% more effectively by E. coli, 2.3-fold better by lactobacilli and 5-fold better in the case of B. subtilis. CDs and CDpols are not toxic for bacterial cells, but may cause mild defects that, in addition to LV-CD carrier adsorption, improve LV’s antibacterial properties.
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spelling pubmed-96545862022-11-15 Cyclodextrins and Their Polymers Affect the Lipid Membrane Permeability and Increase Levofloxacin’s Antibacterial Activity In Vitro Skuredina, Anna A. Tychinina, Anastasia S. Le-Deygen, Irina M. Golyshev, Sergey A. Kopnova, Tatiana Yu. Le, Nikolay T. Belogurova, Natalya G. Kudryashova, Elena V. Polymers (Basel) Article Cyclodextrins (CDs) are promising drug carriers that are used in medicine. We chose CDs with different substituents (polar/apolar, charged/neutral) to obtain polymers (CDpols) with different properties. CDpols are urethanes with average Mw of ~120 kDa; they form nanoparticles 100–150 nm in diameter with variable ζ-potential. We studied the interaction of CD and CDpols with model (liposomal) and bacterial membranes. Both types of CD carriers cause an increase in the liposomal membrane permeability, and for polymers, this effect was almost two times stronger. The formation of CD/CDpols complexes with levofloxacin (LV) enhances LV’s antibacterial action 2-fold in vitro on five bacterial strains. The most pronounced effect was determined for LV-CD complexes. LV-CDs and LV-CDpols adsorb on bacteria, and cell morphology influences this process dramatically. According to TEM studies, the rough surface and proteinaceous fimbria of Gram-negative E. coli facilitate the adsorption of CD particles, whereas the smooth surface of Gram-positive bacteria impedes it. In comparison with LV-CDs, LV-CDpols are adsorbed 15% more effectively by E. coli, 2.3-fold better by lactobacilli and 5-fold better in the case of B. subtilis. CDs and CDpols are not toxic for bacterial cells, but may cause mild defects that, in addition to LV-CD carrier adsorption, improve LV’s antibacterial properties. MDPI 2022-10-22 /pmc/articles/PMC9654586/ /pubmed/36365470 http://dx.doi.org/10.3390/polym14214476 Text en © 2022 by the authors. https://creativecommons.org/licenses/by/4.0/Licensee MDPI, Basel, Switzerland. This article is an open access article distributed under the terms and conditions of the Creative Commons Attribution (CC BY) license (https://creativecommons.org/licenses/by/4.0/).
spellingShingle Article
Skuredina, Anna A.
Tychinina, Anastasia S.
Le-Deygen, Irina M.
Golyshev, Sergey A.
Kopnova, Tatiana Yu.
Le, Nikolay T.
Belogurova, Natalya G.
Kudryashova, Elena V.
Cyclodextrins and Their Polymers Affect the Lipid Membrane Permeability and Increase Levofloxacin’s Antibacterial Activity In Vitro
title Cyclodextrins and Their Polymers Affect the Lipid Membrane Permeability and Increase Levofloxacin’s Antibacterial Activity In Vitro
title_full Cyclodextrins and Their Polymers Affect the Lipid Membrane Permeability and Increase Levofloxacin’s Antibacterial Activity In Vitro
title_fullStr Cyclodextrins and Their Polymers Affect the Lipid Membrane Permeability and Increase Levofloxacin’s Antibacterial Activity In Vitro
title_full_unstemmed Cyclodextrins and Their Polymers Affect the Lipid Membrane Permeability and Increase Levofloxacin’s Antibacterial Activity In Vitro
title_short Cyclodextrins and Their Polymers Affect the Lipid Membrane Permeability and Increase Levofloxacin’s Antibacterial Activity In Vitro
title_sort cyclodextrins and their polymers affect the lipid membrane permeability and increase levofloxacin’s antibacterial activity in vitro
topic Article
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC9654586/
https://www.ncbi.nlm.nih.gov/pubmed/36365470
http://dx.doi.org/10.3390/polym14214476
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