Atoms stand in for electrons in system for probing high-temperature superconductors
Using new “quantum emulator,” physicists can observe individual atoms moving through these materials, and measure their speed.
Using new “quantum emulator,” physicists can observe individual atoms moving through these materials, and measure their speed.
Generous $1 million gift recognizes the collaborations of the Research Laboratory of Electronics and the Technology Licensing Office to develop MIT intellectual property.
Model predicts whether ER patients suffering from sepsis urgently need a change in therapy.
Fibers containing systems for mixing, separating, and testing fluids may open up new possibilities for medical screening.
Faculty members recognized for excellence via a diverse array of honors, grants, and prizes over the last quarter.
Riccardo Comin, Phillip “Donnie” Keathley, and Luqiao Lui are among 31 selected nationwide.
MIT.nano building, the largest of its kind, will usher in a new age of nanoscale advancements.
PhD student Zijay Tang is developing a living material that can sense and filter water contaminants.
“The reason 5G is so different is that what exactly it will look like is still up in the air. Everyone agrees the phrase is a bit of a catch-all.”
Researchers incorporate optoelectronic diodes into fibers and weave them into washable fabrics.
Silicon-based system offers smaller, cheaper alternative to other “broadband” filters; could improve a variety of photonic devices.
Faculty members recognized for excellence via a diverse array of honors, grants, and prizes over the last quarter.
Low-power design will allow devices as small as a honeybee to determine their location while flying.
New bolometer is faster, simpler, and covers more wavelengths.
New materials, heated under high magnetic fields, could produce record levels of energy, model shows.