A soft lithography technique was used to introduce surface patterns on the surface of sintered bioactive glass substrates. Osteoblast-like MG-63 cells and rat mesenchymal stem cells (rMSC) seeded on micropatterned bioactive glass surfaces showed different behavior with rMSC exhibiting a better initial attachment than MG-63 cells. Both cytoskeleton formation and cell spreading of rMSC were supported by the bioactive surfaces. In addition, the structured surfaces seemed to guide MG-63 cells to a larger extent than rMSC. The in vitro results are important considering the continuous development of bone tissue scaffolds based on silicate bioactive glasses
Bioactive glass (13-93) scaffolds with oriented microstructures, referred to as \u27columnar\u27 and...
Mesenchymal stem cells can be isolated from a variety of different sources, each having their own pe...
Glass–ceramic macroporous scaffolds for tissue engineering have been developed using a polyurethane ...
A soft lithography technique was used to introduce surface patterns on the surface of sintered bioac...
This in vitro study was conducted to evaluate the ability of two types of constructs of bioactive, s...
The ability of two groups of 13-93 bioactive glass scaffolds to support tissue ingrowth was evaluate...
Because of the limitations associated with biologic and synthetic grafts, we have pursued the idea o...
Transplantation of encapsulated living cells is a promising approach for the treatment of a wide var...
Mesoporous bioactive glass-polycaprolactone (MBG-PCL) scaffolds have been prepared by robocasting, a...
This investigation consisted of two parts focused on bioactive glasses and scaffolds for in vitro gr...
This in vitro study was performed to evaluate the ability of two types of porous bioactive glass sca...
International audienceUnderstanding of the interactions between cells and surfaces is essential in t...
Bioactive glass is known for its potential as a bone scaffold due to its ability to stimulate osteog...
<p>Three types of scaffolds were used: only bioactive glass (BG)(Group A), BG with 0.1% Cu<sup>2+</s...
This work investigates the difference in viability of primary human foetal osteoblast cells on a gla...
Bioactive glass (13-93) scaffolds with oriented microstructures, referred to as \u27columnar\u27 and...
Mesenchymal stem cells can be isolated from a variety of different sources, each having their own pe...
Glass–ceramic macroporous scaffolds for tissue engineering have been developed using a polyurethane ...
A soft lithography technique was used to introduce surface patterns on the surface of sintered bioac...
This in vitro study was conducted to evaluate the ability of two types of constructs of bioactive, s...
The ability of two groups of 13-93 bioactive glass scaffolds to support tissue ingrowth was evaluate...
Because of the limitations associated with biologic and synthetic grafts, we have pursued the idea o...
Transplantation of encapsulated living cells is a promising approach for the treatment of a wide var...
Mesoporous bioactive glass-polycaprolactone (MBG-PCL) scaffolds have been prepared by robocasting, a...
This investigation consisted of two parts focused on bioactive glasses and scaffolds for in vitro gr...
This in vitro study was performed to evaluate the ability of two types of porous bioactive glass sca...
International audienceUnderstanding of the interactions between cells and surfaces is essential in t...
Bioactive glass is known for its potential as a bone scaffold due to its ability to stimulate osteog...
<p>Three types of scaffolds were used: only bioactive glass (BG)(Group A), BG with 0.1% Cu<sup>2+</s...
This work investigates the difference in viability of primary human foetal osteoblast cells on a gla...
Bioactive glass (13-93) scaffolds with oriented microstructures, referred to as \u27columnar\u27 and...
Mesenchymal stem cells can be isolated from a variety of different sources, each having their own pe...
Glass–ceramic macroporous scaffolds for tissue engineering have been developed using a polyurethane ...