Under certain pH conditions they found that
graphene behaves like a polymer — changing shape by itself.
For the first time in a metal, scientists have found that the charge - carrying particles in
graphene behave as a fluid, where, rather than avoiding each other, particles collide trillions of times a second.
Researchers at Harvard University and Raytheon BBN Technology have discovered that the charged particles inside high - purity
graphene behave as a fluid with relativistic properties.
Scientists have found that the charged particles in
graphene behave like a relativistic fluid, meaning graphene - based chips could now be used to model black holes and supernovas or build highly efficient devices that turn heat into electricity.
Not exact matches
«Placing
graphene on a metal can dramatically alter the properties so it is technically no longer
behaving as we would expect,» Di Bernardo said.
In this configuration the lead forms «islands» below the
graphene and the electrons of this two - dimensional material
behave as if in the presence of a colossal 80 - tesla magnetic field, which facilitates the selective control of the flow of spins.
Graphene, a one - atom - thick carbon sheet, has taken the world of physics by storm — in part, because its electrons
behave as massless particles.
The material — known as 1T» - WTe2 — bridges two flourishing fields of research: that of so - called 2 - D materials, which include monolayer materials such as
graphene that
behave in different ways than their thicker forms; and topological materials, in which electrons can zip around in predictable ways with next to no resistance and regardless of defects that would ordinarily impede their movement.
Confined to the two - dimensional surface of the
graphene, the electrons
behave strangely.
Reduced
graphene oxide
behaves more like
graphene, which has useful properties such as conductivity.
Scientists at Harvard and Raytheon BBN Technology have made a breakthrough in our understanding of
graphene's basic properties, observing for the first time electrons in a metal
behaving like a fluid (Credit: Peter Allen / Harvard SEAS)
In
graphene, however, the electrons» effective mass is zero and they
behave like elementary particles obeying a version of Einsteinian relativity, albeit in a realm where the ultimate speed limit is about 800 kilometers per second instead of the usual 300,000 kilometers per second.