The researchers found that like DNA and proteins,
nanoribbons in solution naturally form folds and loops, but can also form helicoids, wrinkles and spirals.
Not exact matches
The researchers used an advanced simulation method called molecular dynamics to demonstrate thermal rectification
in structures called «asymmetric graphene
nanoribbons.»
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.
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.
In racetrack devices, information - holding skyrmions would speed along a magnetic
nanoribbon, like cars on the Indianapolis Motor Speedway.
In Friedman's spintronic circuit design, electrons moving through carbon nanotubes — essentially tiny wires composed of carbon — create a magnetic field that affects the flow of current in a nearby graphene nanoribbon, providing cascaded logic gates that are not physically connecte
In Friedman's spintronic circuit design, electrons moving through carbon nanotubes — essentially tiny wires composed of carbon — create a magnetic field that affects the flow of current
in a nearby graphene nanoribbon, providing cascaded logic gates that are not physically connecte
in a nearby graphene
nanoribbon, providing cascaded logic gates that are not physically connected.
In addition, a magnetic field near a two - dimensional ribbon of carbon — called a graphene
nanoribbon — affects the current flowing through the ribbon.
In February researchers at the University of Illinois showed that nanoribbons of graphene could be cut in such a way that they could be turned on and of
In February researchers at the University of Illinois showed that
nanoribbons of graphene could be cut
in such a way that they could be turned on and of
in such a way that they could be turned on and off.
In each group, roughly 30 percent more of the
nanoribbons carried the chirality of the light they were exposed to.
Nitrogen - doped carbon nanotubes or modified graphene
nanoribbons may be suitable replacements for platinum for fast oxygen reduction, the key reaction
in fuel cells that transform chemical energy into electricity, according to Rice University researchers.
In future studies, extending this method to other kinds of substrates could enable the quick large scale processing of monolayers of graphene to make high - quality
nanoribbons with zigzag edges.
«Swapping substrates improves edges of graphene
nanoribbons: Using inert boron nitride instead of silica creates precise zigzag edges
in monolayer graphene.»
This is probably because the edges of the graphene
nanoribbons are saturated with hydrogen, which was not accounted for
in the simulations.
«Smart» prosthetic skin made from silicon
nanoribbons is reported this week
in Nature Communications.
Unconventional magnetic anisotropy
in one - dimensional Rashba system realized by adsorbing Gd atom on zigzag graphene
nanoribbons
Graphene
nanoribbons (GNRs) bend and twist easily
in solution, making them adaptable for biological uses like DNA analysis, drug delivery and biomimetic applications, according to scientists at Rice University.
Wijeratne noted graphene
nanoribbons are already being tested for use
in DNA sequencing,
in which strands of DNA are pulled through a nanopore
in an electrified material.
In another, scientists used graphene
nanoribbons to create a scaffold for neurons to grow along.
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.»