This article presents a micro-manufacturing method for direct, projection printing of 3- dimensional (3D) scaffolds for applications in the field of tissue engineering by using a digital micro-mirror-array device (DMD) in a layer-by-layer process. Multi-layered scaffolds are microfabricated using curable materials through an ultraviolet (UV) photopolymerization process. The pre-patterned UV light is projected onto the photocurable polymer solution by creating the “photomask” design with graphic software. Poly (ethylene glycol) diacrylate (PEGDA), is mixed with a small amount of dye (0.3 wt %) to enhance the fabrication resolution of the scaffold. The DMD fabrication system is equipped with a purging mechanism to prevent the accumula...
A 3D printing fused filament fabrication (FFF) approach has been implemented for the creation of mic...
Native tissues are characterized by spatially organized three-dimensional (3D) microscaled units whi...
There is an unmet need for controlled, dynamic cell scaffolds that will generate 3-D monolayers of e...
This article presents a micro-manufacturing method for direct, projection printing of 3- dimensiona...
Fabrication of hydrogel microstructures has attracted considerable attention. A large number of appl...
textTissue engineering is a recently developed field that combines material science, cell biology, a...
Patterned microstructures of hydrogels have attracted significant attention due to an increasing nee...
3D printing technology has significantly changed the traditional way of manufacturing mechanical str...
Mask Projection Microstereolithography (MPμSL) selectively cures entire layers of photopolymer to c...
Microstereolithography (μSL) technology can fabricate three-dimensional (3D) tissue engineered sca...
The revolutionary advancement in semiconductor device manufacturing promoted micro/nano fabrication...
Microstereolithography (μSL) technology can fabricate three-dimensional (3D) tissue engineered scaff...
The development of biomanufacturing technologies particularly, layered manufacturing has advanced c...
A 3D printing fused filament fabrication (FFF) approach has been implemented for the creation of mic...
Native tissues are characterized by spatially organized three-dimensional (3D) microscaled units whi...
There is an unmet need for controlled, dynamic cell scaffolds that will generate 3-D monolayers of e...
This article presents a micro-manufacturing method for direct, projection printing of 3- dimensiona...
Fabrication of hydrogel microstructures has attracted considerable attention. A large number of appl...
textTissue engineering is a recently developed field that combines material science, cell biology, a...
Patterned microstructures of hydrogels have attracted significant attention due to an increasing nee...
3D printing technology has significantly changed the traditional way of manufacturing mechanical str...
Mask Projection Microstereolithography (MPμSL) selectively cures entire layers of photopolymer to c...
Microstereolithography (μSL) technology can fabricate three-dimensional (3D) tissue engineered sca...
The revolutionary advancement in semiconductor device manufacturing promoted micro/nano fabrication...
Microstereolithography (μSL) technology can fabricate three-dimensional (3D) tissue engineered scaff...
The development of biomanufacturing technologies particularly, layered manufacturing has advanced c...
A 3D printing fused filament fabrication (FFF) approach has been implemented for the creation of mic...
Native tissues are characterized by spatially organized three-dimensional (3D) microscaled units whi...
There is an unmet need for controlled, dynamic cell scaffolds that will generate 3-D monolayers of e...