Energetically the single sheet of graphite (graphene) is more stable than the nanotube. The energy difference between the two systems can be directly related to the strain energy involved in rolling up the graphene sheet to form the nanotube. We have carried out first-principle electronic structure calculations and evaluated the strain energy as a function of the nanotube radius. The dependence of the strain energy on the diameter of the nanotube has been found by several groups to be well-described by a continuum elasticity model. We attempt to examine why this is the case and show where atomistics enter the description
International audienceThis paper reviews the mechanical properties of graphene with particular atten...
A method has been proposed for developing structure-property relationships of nano-structured materi...
Abstract. This paper presents an overview of the mechanical properties of carbon nanotubes, starting...
A first principles atomistic calculation and analysis is used to conduct studies on the mechanical a...
The mechanical behavior of SWCNTs is characterized using an atomistic-based continuum method. At nan...
AbstractCarbon nanotubes (CNTs) consist of a graphene sheet (two-dimensional hexagonal lattices of c...
This paper aims at developing a mathematic model to characterize the mechanical properties of single...
Carbon nanotubes (CNTs) are nanometer sized cylinders made of carbon atoms which possess extraordina...
[[abstract]]This paper utilizes atomistic-continuum mechanics method (ACM) to investigate the mechan...
A continuum-based model for computing strain energies and estimating Young\u27s modulus of single-wa...
In this paper, we propose a lattice dynamic treatment for the total potential energy of single-walle...
A finite deformation continuum theory is derived from interatomic potentials for the analysis of the...
Graphyne nanotubes (GNTs) are nanostructures obtained from rolled up graphyne sheets, in the same wa...
A one-dimensional continuum endowed with internal structure, previously introduced by the authors, i...
Carbon Nanotube (CNT) has revolutionized the world of nanotechnology with several novel applications...
International audienceThis paper reviews the mechanical properties of graphene with particular atten...
A method has been proposed for developing structure-property relationships of nano-structured materi...
Abstract. This paper presents an overview of the mechanical properties of carbon nanotubes, starting...
A first principles atomistic calculation and analysis is used to conduct studies on the mechanical a...
The mechanical behavior of SWCNTs is characterized using an atomistic-based continuum method. At nan...
AbstractCarbon nanotubes (CNTs) consist of a graphene sheet (two-dimensional hexagonal lattices of c...
This paper aims at developing a mathematic model to characterize the mechanical properties of single...
Carbon nanotubes (CNTs) are nanometer sized cylinders made of carbon atoms which possess extraordina...
[[abstract]]This paper utilizes atomistic-continuum mechanics method (ACM) to investigate the mechan...
A continuum-based model for computing strain energies and estimating Young\u27s modulus of single-wa...
In this paper, we propose a lattice dynamic treatment for the total potential energy of single-walle...
A finite deformation continuum theory is derived from interatomic potentials for the analysis of the...
Graphyne nanotubes (GNTs) are nanostructures obtained from rolled up graphyne sheets, in the same wa...
A one-dimensional continuum endowed with internal structure, previously introduced by the authors, i...
Carbon Nanotube (CNT) has revolutionized the world of nanotechnology with several novel applications...
International audienceThis paper reviews the mechanical properties of graphene with particular atten...
A method has been proposed for developing structure-property relationships of nano-structured materi...
Abstract. This paper presents an overview of the mechanical properties of carbon nanotubes, starting...