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Functionality of chitosan‐halloysite nanocomposite films for sustained delivery of antibiotics: The effect of chitosan molar mass

Authorized Users Only
2020
Authors
Čalija, Bojan
Milić, Jela
Milašinović, Nikola
Daković, Aleksandra
Trifković, Kata
Stojanović, Jovica
Krajišnik, Danina
Article (Accepted Version)
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Abstract
This study was designed to investigate functionality of tetracycline‐loaded chitosan‐halloysite nanocomposite films, with focus on evaluating the influence of chitosan molar mass on films applicability for sustained local antibiotic delivery. The films were prepared by casting and solvent evaporation using low, medium, and high molar mass chitosan. SEM analysis revealed compact, nonporous and rough surface of the nanocomposite films due to the presence of halloysite agglomerates and tetracycline crystals. Increasing chitosan molar mass led to higher values of elongation at break (from 21.65 ± 2.65 to 34.48 ± 2.34%), tensile strength (from 134.8 ± 13.21 to 246.36 ± 14.69 MPa), and elastic modulus (from 633.79 ± 128.37 to 716.55 ± 60.76 MPa) of the nanocomposite films. FT‐IR, XRPD, and thermal analyses confirmed molar mass dependent chitosan‐halloysite interactions and improved thermal stability of the nanocomposite films in comparison with chitosan films. The nanocomposite films release...d tetracycline in a sustained manner, with the slowest release achieved from the films consisting of low molar mass chitosan. Chitosan molar mass was confirmed to be a functionality‐related characteristic of chitosan‐halloysite nanocomposite films as potential sustained‐release carriers for topical delivery of antibiotics.

Keywords:
biopolymers and renewable polymers / clay / composites / drug delivery systems / films
Source:
Journal of Applied Polymer Science, 2020, 137, 8
Publisher:
  • Wiley Periodicals, Inc.
Projects:
  • Development of micro- and nanosystems as carriers for drugs with anti-inflammatory effect and methods for their characterization (RS-34031)
  • Oxide-based environmentally-friendly porous materials for genotoxic substances removal (RS-172018)
  • Novel encapsulation and enzyme technologies for designing of new biocatalysts and biologically active compounds targeting enhancement of food quality, safety and competitiveness (RS-46010)
Note:
  • This is peer-reviewed version of the following article: Čalija, B.; Milić, J.; Milašinović, N.; Daković, A.; Trifković, K.; Stojanović, J.; Krajišnik, D. Functionality of Chitosan-Halloysite Nanocomposite Films for Sustained Delivery of Antibiotics: The Effect of Chitosan Molar Mass. J. Appl. Polym. Sci. 2020, 137 (8). https://doi.org/10.1002/app.48406

DOI: 10.1002/app.48406

ISSN: 0021-8995

WoS: 000482327700001

Scopus: 2-s2.0-85070936288
[ Google Scholar ]
3
2
URI
http://farfar.pharmacy.bg.ac.rs/handle/123456789/3476
Collections
  • Radovi istraživača / Researchers’ publications
Institution
Pharmacy
TY  - JOUR
AU  - Čalija, Bojan
AU  - Milić, Jela
AU  - Milašinović, Nikola
AU  - Daković, Aleksandra
AU  - Trifković, Kata
AU  - Stojanović, Jovica
AU  - Krajišnik, Danina
PY  - 2020
UR  - http://farfar.pharmacy.bg.ac.rs/handle/123456789/3476
AB  - This study was designed to investigate functionality of tetracycline‐loaded chitosan‐halloysite nanocomposite films, with focus on evaluating the influence of chitosan molar mass on films applicability for sustained local antibiotic delivery. The films were prepared by casting and solvent evaporation using low, medium, and high molar mass chitosan. SEM analysis revealed compact, nonporous and rough surface of the nanocomposite films due to the presence of halloysite agglomerates and tetracycline crystals. Increasing chitosan molar mass led to higher values of elongation at break (from 21.65 ± 2.65 to 34.48 ± 2.34%), tensile strength (from 134.8 ± 13.21 to 246.36 ± 14.69 MPa), and elastic modulus (from 633.79 ± 128.37 to 716.55 ± 60.76 MPa) of the nanocomposite films. FT‐IR, XRPD, and thermal analyses confirmed molar mass dependent chitosan‐halloysite interactions and improved thermal stability of the nanocomposite films in comparison with chitosan films. The nanocomposite films released tetracycline in a sustained manner, with the slowest release achieved from the films consisting of low molar mass chitosan. Chitosan molar mass was confirmed to be a functionality‐related characteristic of chitosan‐halloysite nanocomposite films as potential sustained‐release carriers for topical delivery of antibiotics.
PB  - Wiley Periodicals, Inc.
T2  - Journal of Applied Polymer Science
T1  - Functionality of chitosan‐halloysite nanocomposite films for sustained delivery of antibiotics: The effect of chitosan molar mass
VL  - 137
IS  - 8
DO  - 10.1002/app.48406
ER  - 
@article{
author = "Čalija, Bojan and Milić, Jela and Milašinović, Nikola and Daković, Aleksandra and Trifković, Kata and Stojanović, Jovica and Krajišnik, Danina",
year = "2020",
url = "http://farfar.pharmacy.bg.ac.rs/handle/123456789/3476",
abstract = "This study was designed to investigate functionality of tetracycline‐loaded chitosan‐halloysite nanocomposite films, with focus on evaluating the influence of chitosan molar mass on films applicability for sustained local antibiotic delivery. The films were prepared by casting and solvent evaporation using low, medium, and high molar mass chitosan. SEM analysis revealed compact, nonporous and rough surface of the nanocomposite films due to the presence of halloysite agglomerates and tetracycline crystals. Increasing chitosan molar mass led to higher values of elongation at break (from 21.65 ± 2.65 to 34.48 ± 2.34%), tensile strength (from 134.8 ± 13.21 to 246.36 ± 14.69 MPa), and elastic modulus (from 633.79 ± 128.37 to 716.55 ± 60.76 MPa) of the nanocomposite films. FT‐IR, XRPD, and thermal analyses confirmed molar mass dependent chitosan‐halloysite interactions and improved thermal stability of the nanocomposite films in comparison with chitosan films. The nanocomposite films released tetracycline in a sustained manner, with the slowest release achieved from the films consisting of low molar mass chitosan. Chitosan molar mass was confirmed to be a functionality‐related characteristic of chitosan‐halloysite nanocomposite films as potential sustained‐release carriers for topical delivery of antibiotics.",
publisher = "Wiley Periodicals, Inc.",
journal = "Journal of Applied Polymer Science",
title = "Functionality of chitosan‐halloysite nanocomposite films for sustained delivery of antibiotics: The effect of chitosan molar mass",
volume = "137",
number = "8",
doi = "10.1002/app.48406"
}
Čalija B, Milić J, Milašinović N, Daković A, Trifković K, Stojanović J, Krajišnik D. Functionality of chitosan‐halloysite nanocomposite films for sustained delivery of antibiotics: The effect of chitosan molar mass. Journal of Applied Polymer Science. 2020;137(8)
Čalija, B., Milić, J., Milašinović, N., Daković, A., Trifković, K., Stojanović, J.,& Krajišnik, D. (2020). Functionality of chitosan‐halloysite nanocomposite films for sustained delivery of antibiotics: The effect of chitosan molar mass.
Journal of Applied Polymer ScienceWiley Periodicals, Inc.., 137(8).
https://doi.org/10.1002/app.48406
Čalija Bojan, Milić Jela, Milašinović Nikola, Daković Aleksandra, Trifković Kata, Stojanović Jovica, Krajišnik Danina, "Functionality of chitosan‐halloysite nanocomposite films for sustained delivery of antibiotics: The effect of chitosan molar mass" 137, no. 8 (2020),
https://doi.org/10.1002/app.48406 .

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