We present a continuum model for spontaneous twisting of graphene nanoribbons driven by compressive edge stresses. Based on a geometrically nonlinear theory of plates, we identify scaling laws for the dependence of twist angles on ribbon width. Strikingly, we find the existence of a critical width below which a ribbon will not undergo spontaneous twisting, preferring an in-plane stretching mode instead. The model predictions are shown to be in excellent qualitative and quantitative agreement with density-functional tight-binding simulations. More generally, our model provides a unifying picture of twisting in graphene nanoribbons with different edge orientations and chemical functionalizations that have been reported recently in the ...
Molecular dynamics simulations based on many-body interatomic potentials are conducted to investigat...
Molecular dynamics simulations based on many-body interatomic potentials are conducted to investigat...
International audienceIt is now possible to produce graphene nanoribbons (GNRs) with atomically defi...
We show that edge stresses introduce intrinsic ripples in freestanding graphene sheets even in the a...
We show that edge stresses introduce intrinsic ripples in freestanding graphene sheets even in the a...
We show that edge stresses introduce intrinsic ripples in freestanding graphene sheets even in the a...
We show that edge stresses introduce intrinsic ripples in freestanding graphene sheets even in the a...
Molecular dynamics is employed to study the mechanical behavior of graphene nanoribbons with clamped...
Molecular dynamics is employed to study the mechanical behavior of graphene nanoribbons with clamped...
Graphene nanoribbon (GNR) with free edges can exhibit non-flat morphologies due to pre-existing edge...
In pristine graphene ribbons, disruption of the aromatic bond network results in depopulation of cov...
Graphene nanoribbon (GNR) with free edges can exhibit non-flat morphologies due to pre-existing edge...
Graphene nanoribbon (GNR) with free edges demonstrates unique pre-existing edge energy and edge stre...
The mechanical response of graphene nano-ribbon under tensile loading has been investigated in this ...
We examine the mechanical response of single layer graphene nanoribbons (GNR) under constant compres...
Molecular dynamics simulations based on many-body interatomic potentials are conducted to investigat...
Molecular dynamics simulations based on many-body interatomic potentials are conducted to investigat...
International audienceIt is now possible to produce graphene nanoribbons (GNRs) with atomically defi...
We show that edge stresses introduce intrinsic ripples in freestanding graphene sheets even in the a...
We show that edge stresses introduce intrinsic ripples in freestanding graphene sheets even in the a...
We show that edge stresses introduce intrinsic ripples in freestanding graphene sheets even in the a...
We show that edge stresses introduce intrinsic ripples in freestanding graphene sheets even in the a...
Molecular dynamics is employed to study the mechanical behavior of graphene nanoribbons with clamped...
Molecular dynamics is employed to study the mechanical behavior of graphene nanoribbons with clamped...
Graphene nanoribbon (GNR) with free edges can exhibit non-flat morphologies due to pre-existing edge...
In pristine graphene ribbons, disruption of the aromatic bond network results in depopulation of cov...
Graphene nanoribbon (GNR) with free edges can exhibit non-flat morphologies due to pre-existing edge...
Graphene nanoribbon (GNR) with free edges demonstrates unique pre-existing edge energy and edge stre...
The mechanical response of graphene nano-ribbon under tensile loading has been investigated in this ...
We examine the mechanical response of single layer graphene nanoribbons (GNR) under constant compres...
Molecular dynamics simulations based on many-body interatomic potentials are conducted to investigat...
Molecular dynamics simulations based on many-body interatomic potentials are conducted to investigat...
International audienceIt is now possible to produce graphene nanoribbons (GNRs) with atomically defi...