Electrostatic spinning is a potentially significant technique for scaffold production within the field of tissue engineering; however, the effect of sterilisation upon these structures is not known. This research investigated the extent of any topographical alteration to electrostatically spun scaffolds post-production through sterilisation, and examined any subsequent effect on contacting cells. Scaffolds made from Tecoflex® SG-80A polyurethane were sterilised using ethylene oxide and UV-ozone. Scaffold topography was characterized in terms of inter-fibre separation (ifs), fibre diameter (f.dia) and surface roughness. Cell culture was performed over 7 days with both mouse L929 and human embryonic lung fibroblasts, the results of which were...
Porous polyurethane (PU) structures raise in- creasing interest as scaffolds in tissue engineering a...
The development of porous scaffolds for tissue engineering applications requires the careful choice ...
For most tissue engineering applications, surface modification and sterilization of polymers are cri...
Electrostatic spinning is a potentially significant technique for scaffold production within the fie...
Tissue engineering is a growing area within the regenerative medicine. The electrospun scaffolds are...
Bioabsorbable polymers are increasingly being used in tissue engineering strategies. Despite the kno...
Electrospun materials made from biodegradable polycaprolactone are used widely in various tissue eng...
Textile-based technologies are powerful routes for the production of three-dimensional porous archit...
In this study we investigated the impact of three different sterilization methods, dry heat (DHS), e...
Both physical and chemical crosslinking methods have been shown to be effective in improving the bio...
Thermally activated shape memory polyurethane foams are promising materials for minimally invasive s...
Scaffolds intended for use in tissue engineering applications often invoke a foreign body response u...
Biotextile structures from silk fibroin have demonstrated to be particularly interesting for tissue ...
Plasma treatment is a method to modify the physicochemical properties of biomaterials, which consequ...
Porous polyurethane (PU) structures raise in- creasing interest as scaffolds in tissue engineering a...
The development of porous scaffolds for tissue engineering applications requires the careful choice ...
For most tissue engineering applications, surface modification and sterilization of polymers are cri...
Electrostatic spinning is a potentially significant technique for scaffold production within the fie...
Tissue engineering is a growing area within the regenerative medicine. The electrospun scaffolds are...
Bioabsorbable polymers are increasingly being used in tissue engineering strategies. Despite the kno...
Electrospun materials made from biodegradable polycaprolactone are used widely in various tissue eng...
Textile-based technologies are powerful routes for the production of three-dimensional porous archit...
In this study we investigated the impact of three different sterilization methods, dry heat (DHS), e...
Both physical and chemical crosslinking methods have been shown to be effective in improving the bio...
Thermally activated shape memory polyurethane foams are promising materials for minimally invasive s...
Scaffolds intended for use in tissue engineering applications often invoke a foreign body response u...
Biotextile structures from silk fibroin have demonstrated to be particularly interesting for tissue ...
Plasma treatment is a method to modify the physicochemical properties of biomaterials, which consequ...
Porous polyurethane (PU) structures raise in- creasing interest as scaffolds in tissue engineering a...
The development of porous scaffolds for tissue engineering applications requires the careful choice ...
For most tissue engineering applications, surface modification and sterilization of polymers are cri...