Structural and electronic properties have been studied for Boron Nitride nanoribbons (BNNR) with both zigzag and armchair shaped edge (Z-BNNR and A-BNNR) by first-principle spin-polarized total energy calculations. We found that the energy band gap of Z-BNNR is indirect and decreases monotonically with the increasing ribbon width, whereas direct energy band gap oscillation was observed for A-BNNRs. Additionally, C-substitution at either single boron or nitrogen atom site in BNNRs could induce spontaneous magnetization. Our results could be potentially useful to design magnetic nano-devices based on BNNRs
In the present contribution it is applied first-principles calculations to investigate the electroni...
Using the density functional theory and the nonequilibrium Green’s function method, we study the spi...
We perform first-principles calculations based on density functional theory to study quasi-one-dimen...
Structural and electronic properties have been studied for Boron Nitride nanoribbons (BNNR) with bot...
Structural and electronic properties have been studied for Boron Nitride nanoribbons (BNNR) with bot...
Structures, stabilities, and electronic and magnetic properties of the vacancy and C-doping defects ...
Using first principle calculation, we investigate the structural, electronic and magnetic ...
First-principles calculations within the local spin-density approximation reveal half metallicity in...
We calculate the electronic structures of the fully bare and half-bare zigzag-edged boron nitride na...
The effects of edge chemistry on the relative stability and electronic properties of zigzag boron ni...
The edge states are of particular importance to understand fundamental properties of finite two-dime...
The first-principles calculations have been used to determine structures, stabilities, and electroni...
We perform a comprehensive study of the effects of line defects on electronic and magnetic propertie...
We perform a comprehensive study of the effects of line defects on electronic and magnetic propertie...
Using density functional theory (DFT), we perform a systematic study of the electronic structure of ...
In the present contribution it is applied first-principles calculations to investigate the electroni...
Using the density functional theory and the nonequilibrium Green’s function method, we study the spi...
We perform first-principles calculations based on density functional theory to study quasi-one-dimen...
Structural and electronic properties have been studied for Boron Nitride nanoribbons (BNNR) with bot...
Structural and electronic properties have been studied for Boron Nitride nanoribbons (BNNR) with bot...
Structures, stabilities, and electronic and magnetic properties of the vacancy and C-doping defects ...
Using first principle calculation, we investigate the structural, electronic and magnetic ...
First-principles calculations within the local spin-density approximation reveal half metallicity in...
We calculate the electronic structures of the fully bare and half-bare zigzag-edged boron nitride na...
The effects of edge chemistry on the relative stability and electronic properties of zigzag boron ni...
The edge states are of particular importance to understand fundamental properties of finite two-dime...
The first-principles calculations have been used to determine structures, stabilities, and electroni...
We perform a comprehensive study of the effects of line defects on electronic and magnetic propertie...
We perform a comprehensive study of the effects of line defects on electronic and magnetic propertie...
Using density functional theory (DFT), we perform a systematic study of the electronic structure of ...
In the present contribution it is applied first-principles calculations to investigate the electroni...
Using the density functional theory and the nonequilibrium Green’s function method, we study the spi...
We perform first-principles calculations based on density functional theory to study quasi-one-dimen...