Detailed Information on Publication Record
2011
Nanofibrous scaffolds for tissue engineering
PAVLIŇÁK, David, Veronika ŠVACHOVÁ, Eva KEDROŇOVÁ, Milan ALBERTI, Pavel HYRŠL et. al.Basic information
Original name
Nanofibrous scaffolds for tissue engineering
Name in Czech
Nanomateriály pro tkáňové inženýrství
Name (in English)
Nanofibrous scaffolds for tissue engineering
Authors
PAVLIŇÁK, David, Veronika ŠVACHOVÁ, Eva KEDROŇOVÁ, Milan ALBERTI, Pavel HYRŠL, Monika DUŠKOVÁ, Helena NEJEZCHLEBOVÁ and Libor VOJTEK
Edition
Brno, Potencial and Applications of Surface Nanotreatment of Polymers and Glass, p. 39-104, 2011
Publisher
NANOcontact, Masaryk University
Other information
Type of outcome
Stať ve sborníku
Confidentiality degree
není předmětem státního či obchodního tajemství
Organization unit
Faculty of Science
Keywords (in Czech)
tkáňové inženýrství;nanomateriál;nanotechnologie;elektrospinning;plazmochemické reakce;baktericidita;bioaktivita;chemická luminisence
Keywords in English
tissue engineering;nanomaterial;nanotechnology;electrospinning;plasma-chemical treatment;bactericidal efect;bioactivity;chemical luminiscence
Změněno: 20/10/2011 10:17, Mgr. David Pavliňák, Ph.D.
V originále
Tissue engineering aims to develop biologically functional scafolds for the repair, replacement, or regeneration of damaged tissues. The aim of this work was to find a new manufacturing process of a biologically functional scaffolds. Various synthetic biopolymers, like a gelatine, PVA, collagen have been electrospun to satisfy different clinical requirments. The main research idea was to develop a suitable bactericidal agent that could be sufficiently biocompatible and biodegradable. These requirements fulfilled an oxycellulose which was produced using plasma-chemical reaction. Chemical composition of treated cellulose samples was evaluated with ATR-FTIR and TGA. Biological activity was evaluated by CL - chemical luminiscence methods.
In Czech
Tissue engineering aims to develop biologically functional scafolds for the repair, replacement, or regeneration of damaged tissues. The aim of this work was to find a new manufacturing process of a biologically functional scaffolds. Various synthetic biopolymers, like a gelatine, PVA, collagen have been electrospun to satisfy different clinical requirments. The main research idea was to develop a suitable bactericidal agent that could be sufficiently biocompatible and biodegradable. These requirements fulfilled an oxycellulose which was produced using plasma-chemical reaction. Chemical composition of treated cellulose samples was evaluated with ATR-FTIR and TGA. Biological activity was evaluated by CL - chemical luminiscence methods.
In English
Tissue engineering aims to develop biologically functional scafolds for the repair, replacement, or regeneration of damaged tissues. The aim of this work was to find a new manufacturing process of a biologically functional scaffolds. Various synthetic biopolymers, like a gelatine, PVA, collagen have been electrospun to satisfy different clinical requirments. The main research idea was to develop a suitable bactericidal agent that could be sufficiently biocompatible and biodegradable. These requirements fulfilled an oxycellulose which was produced using plasma-chemical reaction. Chemical composition of treated cellulose samples was evaluated with ATR-FTIR and TGA. Biological activity was evaluated by CL - chemical luminiscence methods.
Links
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