We employ classical molecular dynamics to study the nonlinear thermal transport in graphene nanoribbons (GNRs). For GNRs under large temperature biases beyond linear response regime, we have observed the onset of negative differential thermal conductance (NDTC). NDTC is tunable by varying the manner of applying the temperature biases. NDTC is reduced and eventually disappears when the length of the GNR increases. We have also observed NDTC in triangular GNRs, where NDTC exists only when the heat current is from the narrower to the wider end. These effects may be useful in nanoscale thermal managements and thermal signal processing utilizing GNRs. (C) 2011 American Institute of Physics. [doi:10.1063/1.3630026
We investigate the thermal conductance of one-dimensional periodic width-modulated graphene nanoribb...
We study the thermal transport in completely unzipped carbon nanotubes, which are called graphene na...
Equilibrium molecular dynamics simulations show that graphene nanoribbons (GNRs) with zigzag edges h...
We theoretically and experimentally studied the thermal transport properties in various graphene-bas...
Graphene, a single atomic layer of graphite, has emerged as one of the most attractive materials in ...
Non-equilibrium molecular dynamics is used to investigate the heat current due to the atomic lattice...
In this work, we investigated the effect of knots in the thermal transport of graphene nanoribbons t...
We have used molecular dynamics to calculate the thermal conductivity of symmetric and asymmetric gr...
Classical molecular dynamics based on the Brenner potential and Nos,-Hoover thermostat has been used...
We have used molecular dynamics to calculate the thermal conductivity of symmetric and asymmetric gr...
Graphene, a single atomic layer of graphite, has emerged as one of the most attractive materials in ...
Using classical molecular dynamics simulation, we have studied the effect of edge-pa...
Abstract. We have used classical molecular dynamics based on the Brenner potential to calculate the ...
Approach-to-equilibrium molecular dynamics simulations have been used to study thermal transport in ...
Molecular dynamics simulations and methods of importance sampling are used to study the heat transpo...
We investigate the thermal conductance of one-dimensional periodic width-modulated graphene nanoribb...
We study the thermal transport in completely unzipped carbon nanotubes, which are called graphene na...
Equilibrium molecular dynamics simulations show that graphene nanoribbons (GNRs) with zigzag edges h...
We theoretically and experimentally studied the thermal transport properties in various graphene-bas...
Graphene, a single atomic layer of graphite, has emerged as one of the most attractive materials in ...
Non-equilibrium molecular dynamics is used to investigate the heat current due to the atomic lattice...
In this work, we investigated the effect of knots in the thermal transport of graphene nanoribbons t...
We have used molecular dynamics to calculate the thermal conductivity of symmetric and asymmetric gr...
Classical molecular dynamics based on the Brenner potential and Nos,-Hoover thermostat has been used...
We have used molecular dynamics to calculate the thermal conductivity of symmetric and asymmetric gr...
Graphene, a single atomic layer of graphite, has emerged as one of the most attractive materials in ...
Using classical molecular dynamics simulation, we have studied the effect of edge-pa...
Abstract. We have used classical molecular dynamics based on the Brenner potential to calculate the ...
Approach-to-equilibrium molecular dynamics simulations have been used to study thermal transport in ...
Molecular dynamics simulations and methods of importance sampling are used to study the heat transpo...
We investigate the thermal conductance of one-dimensional periodic width-modulated graphene nanoribb...
We study the thermal transport in completely unzipped carbon nanotubes, which are called graphene na...
Equilibrium molecular dynamics simulations show that graphene nanoribbons (GNRs) with zigzag edges h...