Understanding a new kind of magnetism
Researchers use low-frequency laser pulses to probe the properties of a kind of fluctuating magnetism known as a spin-liquid state.
Water-shedding surfaces can be made to last
New approach to hydrophobic material could benefit power plants, cooling systems.
New materials improve oxygen catalysis
Highly active catalysts could be key to improved energy storage in fuel cells and advanced batteries.
Graphene could yield cheaper optical chips
Researchers show that graphene — atom-thick sheets of carbon — could be used in photodetectors, devices that translate optical signals to electrical.
Developing nanowires for solar cells
Profiling Silvija Gradečak, the Thomas Lord Associate Professor in Materials Science and Engineering
Catalyzing the next generation of batteries
Professor Yang Shao-Horn works at the cutting edge of basic energy science research
A pea-shooter for molecules
Researchers find that tiny molecules passing through nanotubes can be propelled or slowed depending on their size.
The gold standard for cell penetration
Gold nanoparticles with special coatings can deliver drugs or biosensors to a cell’s interior without damaging it.
Tuning metal-oxygen bond strength
Controlling spin state through strain could lead to better cathodes for solid oxide fuel cells
In it for the long run
When Millie Dresselhaus won the prestigious Kavli Award last year, she put her money where her career has been.
Improved nuclear fuel-rod cladding might prevent future Fukushimas
A substitute for traditional zircaloy could greatly reduce the danger of hydrogen explosions.
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.
Solar power heads in a new direction: thinner
Atom-thick photovoltaic sheets could pack hundreds of times more power per weight than conventional solar cells.