Tough biogel structures produced by 3-D printing
Stretchable, biocompatible hydrogels with complex patterning could be used in tissue engineering.
Stretchable, biocompatible hydrogels with complex patterning could be used in tissue engineering.
MIT graduate student Bo Qing studies synthetic gels that could be used in better equipment to protect against traumatic injuries.
MIT biological engineering graduate student Frances Liu is studying ways to alter mechanical properties of cell environments to produce desired chemical outputs.
MIT associate professor brings a materials scientist's understanding to biochemical behavior in stem cells and organ tissue.
New technique allows scientists to identify populations of rare stem cells in bone marrow.
Coated tissue scaffolds help the body grow new bone to repair injuries or congenital defects.
Linda Griffith combines in vitro models with deep molecular analysis to accelerate drug discovery.
Studying these cells could lead to new treatments for diseases ranging from gastrointestinal disease to diabetes.
Engineered liver tissue developed at MIT could help scientists test new drugs and vaccines.
Researchers identify compounds that help liver cells grow outside the body.
Research could lead to better ways to heal injuries and develop new drugs.
New design technique could enable personalized medicine, studies of brain wiring.
Nanofibers have a dizzying range of possible applications, but they’ve been prohibitively expensive to make. MIT researchers hope to change that.
These more durable gels could find applications in drug delivery and tissue engineering.
Research examines how to control spatial distribution of cells in microenvironments