Current progress in tissue engineering is focused on the creation of environments in which cultures of relevant cells can adhere, grow and form functional tissue. We propose a method for controlled chemical and topographical cues through surface patterning of self-folding hydrogel films. This provides a conversion of 2D patterning techniques into a viable method of manufacturing a 3D scaffold. While similar bilayers have previously been demonstrated, here we present a faster and high throughput process for fabricating self-folding hydrogel devices incorporating controllable surface nanotopographies by serial hot embossing of sacrificial layers and photolithography
In this technical note, we demonstrate a squeeze-film based spacer-free method for creating control...
Microscale hydrogels have been shown to be beneficial for various applications such as tissue engine...
Three-dimensional (3D) micro-engineered hydrogel biomaterials incorporating cells is a promising in ...
Current progress in tissue engineering is focused on the creation of environments in which cultures ...
The ability to manufacture complex functional three-dimensional (3D) structures in small scale enabl...
Self-organized patterning of mammalian embryonic stem cells on micropatterned surfaces has previousl...
Formation of graded biomaterials to render shape-morphing scaffolds for 4D biofabrication holds grea...
International audienceA new strategy for the fabrication of micropatterns of surfaceattached hydroge...
There is an unmet need for controlled, dynamic cell scaffolds that will generate 3-D monolayers of e...
In embryogenesis and morphogenesis, cell clusters or sheets organize into units of increasing comple...
The development of microengineered hydrogels co-cultured with cells in vitro could advance in vivo b...
Summary: Synthetic protocols providing mechanical patterns to culture substrate are essential to con...
Organs-on-chips technologies require the development of micro engineered devices to represent functi...
Hydrogel micropatterns of poly( ethylene glycol) and polyacrylamide were prepared with a facile phot...
A facile route for the fabrication of surface-attached hydrogel thin films with well-controlled chem...
In this technical note, we demonstrate a squeeze-film based spacer-free method for creating control...
Microscale hydrogels have been shown to be beneficial for various applications such as tissue engine...
Three-dimensional (3D) micro-engineered hydrogel biomaterials incorporating cells is a promising in ...
Current progress in tissue engineering is focused on the creation of environments in which cultures ...
The ability to manufacture complex functional three-dimensional (3D) structures in small scale enabl...
Self-organized patterning of mammalian embryonic stem cells on micropatterned surfaces has previousl...
Formation of graded biomaterials to render shape-morphing scaffolds for 4D biofabrication holds grea...
International audienceA new strategy for the fabrication of micropatterns of surfaceattached hydroge...
There is an unmet need for controlled, dynamic cell scaffolds that will generate 3-D monolayers of e...
In embryogenesis and morphogenesis, cell clusters or sheets organize into units of increasing comple...
The development of microengineered hydrogels co-cultured with cells in vitro could advance in vivo b...
Summary: Synthetic protocols providing mechanical patterns to culture substrate are essential to con...
Organs-on-chips technologies require the development of micro engineered devices to represent functi...
Hydrogel micropatterns of poly( ethylene glycol) and polyacrylamide were prepared with a facile phot...
A facile route for the fabrication of surface-attached hydrogel thin films with well-controlled chem...
In this technical note, we demonstrate a squeeze-film based spacer-free method for creating control...
Microscale hydrogels have been shown to be beneficial for various applications such as tissue engine...
Three-dimensional (3D) micro-engineered hydrogel biomaterials incorporating cells is a promising in ...