Enhancing solar cells with heat
Thermophotovoltaic system converts high heat to narrow spectrum tailored to solar cell profile
Thermophotovoltaic system converts high heat to narrow spectrum tailored to solar cell profile
Device Research Laboratory scientists aim to control changes in phase of gases and liquids to reduce power consumption in heating and cooling systems.
MIT team documents a never-before-seen coupling of photons with electrons on the surface of an exotic crystal.
Researchers show that graphene — atom-thick sheets of carbon — could be used in photodetectors, devices that translate optical signals to electrical.
MIT researchers discover a new phenomenon that could lead to new types of lasers and sensors.
New system uses two-dimensional structures to guide plasmonic waves at ultrashort wavelength, offering a new platform for memory and computer chips.
New process developed at MIT could enable better LED displays, solar cells and biosensors — and foster basic physics research.
A new ‘metamaterial’ prevents electromagnetic waves from reflecting backward, pointing the way toward computer chips that move data with light.
Tiny cylinders help reveal how natural-light-harvesting antennae collect light with exceptional efficiency.
Materials science and engineering professor studies nanophotonics and electronics.
A fiber that can emit light along its length in any direction may herald flexible 3-D displays and medical tools that activate therapeutic compounds with bursts of light.
To keep energy consumption under control, future chips may need to move data using light instead of electricity — and the technical expertise to build them may reside in the United States.
A new kind of high-temperature photonic crystal could someday power everything from smartphones to spacecraft.
Researchers at MIT find a way to observe and control the way electrons spin on the surface of exotic new materials.
Research at MIT produces long-sought component to allow complete optical circuits on silicon chips.