Unlocking mRNA’s cancer-fighting potential
MIT spinout Strand Therapeutics has developed a new class of mRNA molecules that can sense where they are in the body, for more targeted and powerful treatments.
MIT spinout Strand Therapeutics has developed a new class of mRNA molecules that can sense where they are in the body, for more targeted and powerful treatments.
A new computational framework could help researchers design granular hydrogels to repair or replace diseased tissues.
Family’s health trauma translates into mission to solve a chronic health problem suffered by more than a million Americans.
M-CELS are purpose-driven living systems with multiple interacting living components.
MIT researchers pinpoint mechanism and demonstrate that drugs could help.
Chemical process called ELAST allows labeling probes to infuse more quickly, and makes samples tough enough for repeated handling.
A new approach reveals how different tissues contribute to inflammatory diseases such as ulcerative colitis.
Device developed within the Department of Civil and Environmental Engineering has the potential to replace damaged organs with lab-grown ones.
Successfully launched project aims to understand why some injuries result in post-traumatic osteoarthritis while others heal and recover.
Tiny implantable “seeds” of tissue produce fully functional livers.
Targeted treatment could be used for pneumonia and other bacterial infections.
Technique could enable 3-D printing of cellular structures for 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.