Mapping neurological disease
New algorithm can analyze information from medical images to identify diseased areas of the brain and connections with other regions.
New algorithm can analyze information from medical images to identify diseased areas of the brain and connections with other regions.
MIT-led research team finds that protein significantly reduces infected cells’ ability to squeeze through tiny channels compared to healthy cells.
Work correlating ultracold atoms’ spin with their direction of motion may help physicists model new circuit devices and unusual phases of matter.
Technique may enable robotic animals that move with the strength and flexibility of their living counterparts.
Where other roboticists try to suppress the complex dynamics of mechanical systems, Russ Tedrake exploits them, to make control more efficient and versatile.
Drug-like molecule restores normal cell metabolism, preventing cancer cells from growing.
A new system for crowdsourcing database operations spares the user from worrying about the computational details but improves cost effectiveness.
Method developed by MIT researchers could produce materials with exceptional strength and other properties.
Genetically modified organism could turn carbon dioxide or waste products into a gasoline-compatible transportation fuel.
Distinctive patterns could allow doctors to develop better rehab programs for stroke patients.
New process developed at MIT could enable better LED displays, solar cells and biosensors — and foster basic physics research.
Cells grown on different types of scaffolds vary in their ability to help repair damaged blood vessels.
A recent paper out of Manolis Kellis' group shows the wisdom of crowds when it comes to selecting methods for analyzing gene regulatory networks.