DocumentCode
731425
Title
Atmospheric pressure non-thermal plasma for the production of composite materials
Author
Bloise, Nora ; Sampaolesi, Maurilio ; Visai, Livia ; Colombo, V. ; Gherardi, M. ; Focarete, M.L. ; Gualandi, C. ; Laurita, R. ; Liguori, A. ; Mauro, Nicolo ; Manfredi, Amedea ; Ferruti, Paolo ; Ranucci, Elisabetta
Author_Institution
Univ. of Pavia, Pavia, Italy
fYear
2015
fDate
24-28 May 2015
Firstpage
1
Lastpage
1
Abstract
In the rapidly evolving field of tissue engineering, continuous advances are required to improve scaffold design and fabrication to obtain biomimetic supports for cell adhesion, proliferation, penetration and differentiation. Both electrospun fibrous scaffolds and hydrogels are widely used in this field since they well reproduce the structure of the extracellular matrix (ECM) of many biological tissues. Limitations of these two types of materials can be overcome through their combination, by developing composite structures1, combining enhanced mechanical properties (provided by the fibrous components) and improved cell penetration (provided by the gel phase) into a superior ability to mimic natural ECM, which is constituted by both a fibrous protein network and a hydrogel matrix.
Keywords
adhesion; chemical reactions; dielectric-barrier discharges; electrospinning; filled polymers; hydrogels; mechanical testing; nanocomposites; nanofabrication; nanofibres; plasma materials processing; plasma pressure; polymer fibres; surface chemistry; thermomechanical treatment; HV Amplifier; PLLA substrates; adhesion; amino functional groups; atmospheric pressure nonthermal plasma; biological tissues; biomimetic supports; cell adhesion; cell differentiation; cell penetration; cell proliferation; compatibilization; composite material production; composite structures; crosslinking degrees; dielectric barrier discharge; electrospinning; extracellular matrix structure; fibrous protein network; fibrous scaffolds; function generator; gel phase; hydrogel PLLA scaffolds; mechanical properties; mechanical testing; microsecond rise time; nanofibrous hydrogel; pluripotent stem cells; pluripotent stem cells response; poly(amidoamine) hydrogels; pressure 1 atm; scaffold design; solid-state thermomechanical characterization; surface characterization; surface chemical reactions; tissue engineering; Adhesives; Composite materials; Electronic countermeasures; Nanocomposites; Plasmas; Surface discharges; Surface treatment;
fLanguage
English
Publisher
ieee
Conference_Titel
Plasma Sciences (ICOPS), 2015 IEEE International Conference on
Conference_Location
Antalya
Type
conf
DOI
10.1109/PLASMA.2015.7179970
Filename
7179970
Link To Document