A design for modifying an existing 3D Systems stereolithography (SL) apparatus 250/50 was developed to accommodate multiple material fabrication for building multi-material, multifunctional and multi-colored prototypes, models and devices. The machine was configured for automated access to an intermediate washing, curing, and drying unit that eliminated contamination between material vats and maintained accurate platform registration throughout the build process. Three vats were arranged on a rotating vat carousel, and each vat was adapted to actively maintain a uniform, desired level of material by including a recoating device and a material fill and removal system. A single platform was attached to an elevator mechanism (zstage) to ...
The technologies employed for the preparation of conventional tissue engineering scaffolds restrict ...
Thesis: S.M., Massachusetts Institute of Technology, Department of Materials Science and Engineering...
Microstereolithography (μSL) technology can fabricate three-dimensional (3D) tissue engineered sca...
A design for modifying an existing 3D Systems stereolithography (SL) apparatus 250/50 was developed...
An automated Multiple Material Stereolithography (MMSL) machine was developed by integrating compon...
We have previously described the development of a µSL system using a Digital Micromirror Device (DM...
A multi-material stereolithography (MMSL) machine was developed by retrofitting components from a co...
Researchers continue to explore possibilities for expanding additive manufacturing (AM) technologies...
We have previously described the development of a microstereolithography (µSL) system using a Digita...
Challenges remain in tissue engineering to control the spatial and temporal mechanical and biochemi...
In recent years, rapid prototyping (RP) technologies initially developed to create prototypes prior ...
In recent years, rapid prototyping (RP) technologies initially developed to create prototypes prior ...
For the fabrication of tissue engineering scaffolds, the intended tissue formation process imposes r...
Additive manufacturing, or nowadays more popularly entitled as 3D printing, enables a fast rea...
Microstereolithography (μSL) technology can fabricate three-dimensional (3D) tissue engineered scaff...
The technologies employed for the preparation of conventional tissue engineering scaffolds restrict ...
Thesis: S.M., Massachusetts Institute of Technology, Department of Materials Science and Engineering...
Microstereolithography (μSL) technology can fabricate three-dimensional (3D) tissue engineered sca...
A design for modifying an existing 3D Systems stereolithography (SL) apparatus 250/50 was developed...
An automated Multiple Material Stereolithography (MMSL) machine was developed by integrating compon...
We have previously described the development of a µSL system using a Digital Micromirror Device (DM...
A multi-material stereolithography (MMSL) machine was developed by retrofitting components from a co...
Researchers continue to explore possibilities for expanding additive manufacturing (AM) technologies...
We have previously described the development of a microstereolithography (µSL) system using a Digita...
Challenges remain in tissue engineering to control the spatial and temporal mechanical and biochemi...
In recent years, rapid prototyping (RP) technologies initially developed to create prototypes prior ...
In recent years, rapid prototyping (RP) technologies initially developed to create prototypes prior ...
For the fabrication of tissue engineering scaffolds, the intended tissue formation process imposes r...
Additive manufacturing, or nowadays more popularly entitled as 3D printing, enables a fast rea...
Microstereolithography (μSL) technology can fabricate three-dimensional (3D) tissue engineered scaff...
The technologies employed for the preparation of conventional tissue engineering scaffolds restrict ...
Thesis: S.M., Massachusetts Institute of Technology, Department of Materials Science and Engineering...
Microstereolithography (μSL) technology can fabricate three-dimensional (3D) tissue engineered sca...