Hu, Ruan, and Chen also published a paper four years ago in the journal Nano Letters, among the first to propose asymmetric graphene
nanoribbons as a thermal rectifier in research using the molecular dynamics simulations.
Not exact matches
Triangular graphene
nanoribbons (a) are proposed
as a new thermal rectifier, in which the heat flow in one direction is larger than that in the opposite direction.
Ultimately, the model could be applied to semiconductors used
as high - efficiency thermoelectrics, and to graphene
nanoribbons used
as heat sinks for so - called ultra large scale integration devices, such
as computer microprocessors.
Various methods of making graphene - based field effect transistors (FETs) have been exploited, including doping graphene tailoring graphene - like a
nanoribbon, and using boron nitride
as a support.
«We are now able to watch
as individual molecules join together to form
nanoribbons of graphene and polymers.
But there are ways to give the material a band gap, including using two separated strips of graphene fabricated
as «
nanoribbons.»
The researchers discovered that all
nanoribbons become rigid under stress, but their rigidity increases
as oxide molecules are removed to turn graphene oxide
nanoribbons into GNRs.
Sorkin and Su's calculations give further insights into these systems, indicating that
as they point out in their report, «the intermediate structure experiences disintegration followed by a remarkable re-building process to form graphene
nanoribbons with differently oriented grains.»