Concentrating dawn-to-dusk solar energy
MOSAIC award spurs MIT research into concentrator solar cells that can run in shade and full sun with power control and wavelength separation.
A new way to store solar heat
Material could harvest sunlight by day, release heat on demand hours or days later.
Harnessing the energy of small bending motions
New device could provide electrical power source from walking and other ambient motions.
Grad students honored for their research at Materials Research Society meeting
Three MIT graduate students win Silver Awards for work on catalysts, hydrogels, and magnetic nanoparticles.
Solar energy from discarded car batteries
An MIT development could benefit both the environment and human health.
Four MIT faculty named 2015 fellows of the National Academy of Inventors
Belcher, Bhatia, Brown, and Horvitz recognized for demonstrating a prolific spirit of innovation and invention resulting in a tangible impact on society.
Unusual magnetic behavior observed at a material interface
Findings could lead to a building block for future quantum computers, and a research tool for physics.
Sorting cells with sound waves
Acoustic device that separates tumor cells from blood cells could help assess cancer’s spread.
A molecular approach to solar power
Switchable material could harness the power of the sun — even when it’s not shining.
A new source for potassium fertilizer
Allanore lab chemically alters feldspar, an ore closer to home for countries that cultivate bananas and other potassium-dependent crops
Finding the keys to boiling heat transfer
Understanding the properties that control surface dissipation of heat could lead to improved power plants and electronics with high heat-transfer rates.
A new understanding of metallic glass
Simulations reveal that the formation of some glassy materials is like the setting of a bowl of gelatin.
Catching the sun’s heat
Storing thermal energy in chemical form has the potential to make it indefinitely storable and transportable.
Building microchips from the bottom up
MIT develops novel self-assembly method that could break size barrier
