DocumentCode :
628002
Title :
Pore-Cast Scaffold for Vascular Tissue Engineering
Author :
Zhang, Michael H. ; Khankhe, Aimal H. ; McHugh, Kevin J. ; Saint-Geniez, Magali
Author_Institution :
Dept. of Biomed. Eng., Boston Univ., Boston, MA, USA
fYear :
2013
fDate :
5-7 April 2013
Firstpage :
297
Lastpage :
298
Abstract :
Transplantation of engineered vascular grafts has emerged as a potential therapeutic solution for cardiovascular disease treatment. Although engineered vascular grafts hold the potential to satisfy a large clinical need, thrombosis remains a major risk with the small-diameter grafts (<;5 mm). Currently, electrospinning is considered the gold standard for scaffold construction. However, poorly controlled pore dimensions allow the migration of endothelial cells (EC) into the scaffold through large gaps, making it difficult to achieve a uniform monolayer. The aim of this study is to design and construct a thin, porous, non-thrombogenic film as a scaffold for vascular grafts. Pore dimensions will be controlled by using a casting technique, thereby reducing the problem of cell migration into the scaffold. A confluent EC monolayer can then act as a barrier preventing blood-scaffold interaction, which will reduce the risk of thrombogenesis when implanted in vivo.
Keywords :
biomedical materials; blood; cardiovascular system; casting; cell motility; diseases; electrospinning; monolayers; patient treatment; polymers; porous materials; tissue engineering; blood-scaffold interaction; cardiovascular disease treatment; casting technique; confluent EC monolayer; electrospinning; endothelial cell migration; engineered vascular graft transplantation; gold standard; nonthrombogenic film; pore dimension; pore-cast scaffold; potential therapeutic solution; scaffold construction; small-diameter graft; thrombogenesis risk reduction; uniform monolayer; vascular tissue engineering; Biomembranes; Blood vessels; Cells (biology); Myocardium; Polymers; Silicon; Tissue engineering; biological scaffolds; biomaterial; blood vessel; endothelial cells; polymer scaffolds; tissue engineering; vascular graft;
fLanguage :
English
Publisher :
ieee
Conference_Titel :
Bioengineering Conference (NEBEC), 2013 39th Annual Northeast
Conference_Location :
Syracuse, NY
ISSN :
2160-7001
Print_ISBN :
978-1-4673-4928-4
Type :
conf
DOI :
10.1109/NEBEC.2013.127
Filename :
6574476
Link To Document :
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