It may not seem like a material as
thin as an atom could hide any surprises, but a research team led by scientists at the Department of Energy's Lawrence Berkeley National Laboratory (Berkeley Lab) discovered an unexpected magnetic property in a two - dimensional material.
Not exact matches
The colloidal
thin films thus mimicked crystal phases of
atoms, and the sample design permitted experimenters to record particle behaviors by video microscopy
as they switched from one phase to another.
Through a process known
as electron - beam deposition, the researchers have built a
thin - film wafer from 13 stacked meta -
atoms.
They bonded a
thin layer of indium phosphide, a compound that acts
as a medium for the laser, onto silicon sheets by exposing both materials to a blast of hot, electrically charged oxygen
atoms; the indium phosphide was spiked with aluminum gallium indium arsenide to give it added speed.
The models showed that
thinner carbon nanotubes with a relatively high concentration of nitrogen would perform best,
as oxygen
atoms readily bond to the carbon
atom nearest the nitrogen.
«To put that challenge in perspective, an
atom - thick
thin film that is 5 centimeters wide is equivalent to a piece of paper that is
as wide
as a large city,» Cao said.
Magnetic charge ice is two - dimensional, meaning it consists of a very
thin layer of
atoms, and could be applied to other
thin materials, such
as graphene.
Internal specs are
thin on the ground at the moment, although we know it's among the first devices to be based on Intel's 64 - bit quad - core
Atom architecture, otherwise known
as Moorefiled.
The awkwardly named tablet — which you might also see written occasionally
as «Dell Venue 8 7000 series» — is a
thin little slice of heaven (all of 6 mm), running Android 4.4.4 and powered by an Intel
Atom processor.
The Atmosphere progressively gets
thinner, or «will contain less
atoms and molecules»
as altitude increases.