A new method to produce large, monolayer single-crystal-like graphene films more than a foot long relies on harnessing a āsurvival of the fittestā competition among crystals.
For Juan Carlos Idrobo, the scientistās journey is like taking a test that is only two pages long. You start reading the first page, but you donāt understand any of the questions.
91°µĶų researchers have directly written high-purity metallic structures narrower than a cold virusāwhich could open nanofabrication opportunities in electronics, drug delivery, catalysis and chemical separations.
Material surfaces and interfaces may appear flat and void of texture to the naked eye, but a view from the nanoscale reveals an intricate tapestry of atomic patterns that control the reactions between the material and its environment.
Diesel vehicles today emit far fewer pollutants than older vehicles, thanks to a zeolite (hydrous silicate) catalytic converter that was invented around 10 years ago to reduce pollutants that cause the formation of acid rain and smog.
Five researchers at the Department of Energyās 91°µĶų have been elected fellows of the American Association for the Advancement of Science (AAAS). AAAS, the worldās largest multidisciplinary scientific society
A semiconducting material with a puckered pentagonal atomic structure, characterized by 91°µĶų, could rival graphene and black phosphorus as a viable option for nanoscale electronics.
A new approach developed by 91°µĶų creates seamless electrical contacts between precisely controlled nanoribbons of graphene, making the material viable as a building block for next-generation electronic devices.
New method to detect spin current in quantum materials unlocks potential for alternative electronics
A new method that precisely measures the mysterious behavior and magnetic properties of electrons flowing across the surface of quantum materials could open a path to next-generation electronics.