New computational tool predicts cell fates and genetic perturbations
The technique can help predict a cell’s path over time, such as what type of cell it will become.
The technique can help predict a cell’s path over time, such as what type of cell it will become.
Through MIT’s Undergraduate Research Opportunities Program, students explore research topics relevant to their own interests, the MCSC, and member companies.
Collaboration with Federal Reserve Bank of Boston yields progress in understanding how a digital currency might be developed in the future.
MIT biologists drilled down into how proteins recognize and bind to one another, informing drug treatments for cancer.
The sticky patch could be quickly applied to repair gut leaks and tears.
The new substance is the result of a feat thought to be impossible: polymerizing a material in two dimensions.
Assistant Professor Marzyeh Ghassemi explores how hidden biases in medical data could compromise artificial intelligence approaches.
A computational study shows that dozens of mutations help the virus’ spike protein evade antibodies that target SARS-CoV-2.
The machine-learning model could help scientists speed the development of new medicines.
An accidental discovery and a love of spectroscopic perturbations leads to the solution of a 90-year-old puzzle.
A pill that releases RNA in the stomach could offer a new way to administer vaccines, or to deliver therapies for gastrointestinal disease.
An MIT team develops 3D-printed tags to classify and store data on physical objects.
Using ultrathin materials to reduce the size of superconducting qubits may pave the way for personal-sized quantum devices.
MIT neuroscientists have developed a computer model that can answer that question as well as the human brain.
A new method automatically describes, in natural language, what the individual components of a neural network do.