Guaranteed delivery — in ad hoc networks
A new algorithm for message dissemination in decentralized networks is faster than its predecessors but, unlike them, guarantees delivery.
How to stop leaks — the way blood does
Harnessing the principle that allows blood to clot, MIT researchers are working on new synthetic materials to plug holes.
Tiny tools help advance medical discoveries
MIT researchers are designing tools to analyze cells at the microscale.
Research update: Jumping droplets help heat transfer
Scalable nanopatterned surfaces designed by MIT researchers could make for more efficient power generation and desalination.
Editing the genome with high precision
New method allows scientists to insert multiple genes in specific locations, delete defective genes.
Simons Center for the Social Brain offering seed grants, postdoc fellowships
Deadline for applications is February 28.
New insights into how brain synapses transmit information
Two essential proteins regulate the molecular machinery that controls neuronal communication and the release of signals between neurons.
Professor Roger Kamm visualizes sneaky tumor cells with 3-D assay
Kamm is studying the mechanics of metastasis, the process of cancer-cell migration from one location in the body to another and the cause of more than 90 percent of cancer deaths.
Recent Course X grad named one of Forbes magazine's '30 Under 30'
Pedro Valencia PhD '12 honored for drug research.
Improving the accuracy of cancer diagnoses
New spectroscopy technique could help doctors better identify breast tumors.
Flexible, light solar cells could provide new opportunities
MIT researchers develop a new approach using graphene sheets coated with nanowires.
Evolution: It’s all in how you splice it
MIT biologists find that alternative splicing of RNA rewires signaling in different tissues and may often contribute to species differences.
New experiments, new insights into stress corrosion cracking
MIT researchers now have new insights into how 'stress corrosion cracking' may be affected by nanoscale disruptions in the crystalline structure of metallic materials.
MIT researchers discover a new kind of magnetism
Experiments demonstrate ‘quantum spin liquid,’ which could have applications in new computer memory storage.