Generating high-quality single photons for quantum computing
New dual-cavity design emits more single photons that can carry quantum information at room temperature.
New dual-cavity design emits more single photons that can carry quantum information at room temperature.
EECS faculty member is recognized for technical innovation, educational excellence, and efforts to advance women and underrepresented minorities in her field.
“Hybrid” cathodes could provide more power for a given weight and volume.
Sensor can monitor wiring in a building or ship, and signal when repairs are needed.
MIT researchers find a new way to make nanoscale measurements of fields in more than one dimension.
Growing material directly onto substrates and recycling chip patterns should enable faster, simpler manufacturing.
Approach developed by MIT engineers surmounts longstanding problem of light scattering within biological tissue and other complex materials.
William Oliver says a lack of available quantum scientists and engineers may be an inhibitor of the technology’s growth.
A critical gel-like structure in the inner ear moves according to a sound’s frequency, researchers find.
First measurement of its kind could provide stepping stone to practical quantum computing.
High-power, tunable design could be used for chemical detection in outer space, medical imaging, more.
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.