Biocompatibility of electrospun poly(3-hydroxybutyrate) and its composites scaffoldsfor tissue engineering

   
Zharkova I.I.1 , Staroverova O.V.2, Voinova V.V.1, Andreeva N.V.1, Shushckevich A.M.3, Sklyanchuk E.D.3, Kuzmicheva G.M.2, Bespalova A.E.1, Akulina E.A.1, Shaitan K.V.1, Olkhov A.A.2

1. Lomonosov Moscow State University
2. Lomonosov Moscow State University of Fine Chemical Technologies
3. Moscow State University of Medicine and Dentistry
Section: Experimental Study
DOI: 10.18097/PBMC20146005553      PubMed Id: 25386884
Year: 2014  Volume: 60  Issue: 5  Pages: 553-560
Development of biodegradable polymers-based scaffolds for tissue engineering is a promising trend in bioengineering. The electrospun scaffolds from poly(3-hydroxybutyrate) (PHB) were produced using different additives that changed the physical and chemical characteristics of the products. As a result, the construct consisting of interwoven threads of different diameter (0.8-3.4 mm) were obtained, the smallest diameter was observed in the threads from the PHB using tetrabutilammonium iodide (TBAI) and titanium oxide II (TiO2) as additives. Mesenchymal stem cells (MSC) were cultivated on the scaffolds for the biocompatibility evaluation of obtained materials. Cells viability was determined by the XTT assay test. It was shown that the scaffold from the interwoven threads of lowest diameter is most favorable for MSC growth in comparison with the polymer film and scaffolds from the threads of larger diameter. Thus, it was shown that the biocompatibility of electrospun PHB scaffolds depended on their microstructure. The obtained data can be used for development of scaffolds for tissue engineering.
Download PDF:  
Keywords: poly(3-hydroxybutyrate), electrospinning, biocompatibility, MSC
Citation:

Zharkova, I. I., Staroverova, O. V., Voinova, V. V., Andreeva, N. V., Shushckevich, A. M., Sklyanchuk, E. D., Kuzmicheva, G. M., Bespalova, A. E., Akulina, E. A., Shaitan, K. V., Olkhov, A. A. (2014). Biocompatibility of electrospun poly(3-hydroxybutyrate) and its composites scaffoldsfor tissue engineering. Biomeditsinskaya Khimiya, 60(5), 553-560.
References  
 2024 (vol 70)
 2023 (vol 69)
 2022 (vol 68)
 2021 (vol 67)
 2020 (vol 66)
 2019 (vol 65)
 2018 (vol 64)
 2017 (vol 63)
 2016 (vol 62)
 2015 (vol 61)
 2014 (vol 60)
 2013 (vol 59)
 2012 (vol 58)
 2011 (vol 57)
 2010 (vol 56)
 2009 (vol 55)
 2008 (vol 54)
 2007 (vol 53)
 2006 (vol 52)
 2005 (vol 51)
 2004 (vol 50)
 2003 (vol 49)