Stone-Wales (SW) defects in materials having hexagonal lattice are the most common topological defects that affect the electronic and mechanical properties. Using first principles density functional theory based calculations, we study the formation energy and kinetic barrier of SW-defect in infinite and finite sheets of silicene. The formation energies as well as the barriers in both the cases are significantly lower than those of graphene. Furthermore, compared with the infinite sheets, the energy barriers and formation energies are lower for finite sheets. However, due to low barriers these defects are expected to heal out of the finite sheets. (C) 2013 Elsevier B.V. All rights reserved
This work advances the modeling of bondonic effects on graphenic and honeycomb structures, with an o...
Self-healing mechanisms of vacancy defects in graphene and silicene are studied using first-principl...
The experimental realization of two-dimensional materials such as graphene, silicene and germanene h...
We study the impact of various point defects on the structural, electronic and ballistic transport p...
A theory of the Stone-Wales (SW) defect as dipole of dislocation and anti-dislocation is presented i...
The in-plane strain fields of single-vacancy silicene with different monovacancy (MV) concentrations...
Density functional theory and quantum Monte Carlo simulations reveal that the structure of the Stone...
Density functional theory (DFT) is widely used to study defects in monolayer graphene with a view to...
Silicene, a graphene analogue of silicon, has been generating immense interest due to its potential ...
Density functional theory and quantum Monte Carlo simulations reveal that the structure of the Stone...
Silicene, a graphene analogue of silicon, has been generating immense interest due to its potential ...
Density functional theory and quantum Monte Carlo simulations reveal that the structure of the Stone...
We determine properties of the vacancy in graphite from first principles calculations. The ground-st...
We determine properties of the vacancy in graphite from first principles calculations. The ground-st...
Cataloged from PDF version of article.Self-healing mechanisms of vacancy defects in graphene and sil...
This work advances the modeling of bondonic effects on graphenic and honeycomb structures, with an o...
Self-healing mechanisms of vacancy defects in graphene and silicene are studied using first-principl...
The experimental realization of two-dimensional materials such as graphene, silicene and germanene h...
We study the impact of various point defects on the structural, electronic and ballistic transport p...
A theory of the Stone-Wales (SW) defect as dipole of dislocation and anti-dislocation is presented i...
The in-plane strain fields of single-vacancy silicene with different monovacancy (MV) concentrations...
Density functional theory and quantum Monte Carlo simulations reveal that the structure of the Stone...
Density functional theory (DFT) is widely used to study defects in monolayer graphene with a view to...
Silicene, a graphene analogue of silicon, has been generating immense interest due to its potential ...
Density functional theory and quantum Monte Carlo simulations reveal that the structure of the Stone...
Silicene, a graphene analogue of silicon, has been generating immense interest due to its potential ...
Density functional theory and quantum Monte Carlo simulations reveal that the structure of the Stone...
We determine properties of the vacancy in graphite from first principles calculations. The ground-st...
We determine properties of the vacancy in graphite from first principles calculations. The ground-st...
Cataloged from PDF version of article.Self-healing mechanisms of vacancy defects in graphene and sil...
This work advances the modeling of bondonic effects on graphenic and honeycomb structures, with an o...
Self-healing mechanisms of vacancy defects in graphene and silicene are studied using first-principl...
The experimental realization of two-dimensional materials such as graphene, silicene and germanene h...