Using the Tight Binding (TB) parameters extracted from Density Functional Theory (DFT) and Recursive Green\u27s Function method (RGF), it is shown that skewed-zigzag black phosphorus (phosphorene) nanoribbons obtain large and tuneable bandgap in response to vertical and transverse electric fields. Depending on the direction of the applied field the mid-gap states could possess the localized or metallic nature i.e., non-zero midgap density of states. Adjustability of the bandgap and optical dipole transition matrix elements are explained based on the symmetry of involved band edge states. This promises new electronic and optical devices based on phosphorene nanoribbons
Phosphorene is a graphene-like material with an intermediate band gap, in contrast to zero-gap graph...
Nanodevices based on monolayer black phosphorus or phosphorene are promising for future electron dev...
We study electronic and optical properties of single layer phosphorene quantum dots with various sha...
Abstract Electronic and optical responses of zigzag- and armchair-edge quasi-one-dimensional phospho...
In this work, first-principles calculations based on Density Functional Theory (DFT) were employed i...
Edge-induced gap states in finite phosphorene layers are examined using analytical models and densit...
Using first principles calculations we investigate the effect of external electric fields in the opt...
Recently, a phosphorus isomer named green phosphorus was theoretically predicted with a similar inte...
Few-layer black phosphorene has recently attracted significant interest in the scientific community....
Recently, a new semiconducting 2D material, black phosphorus, has piqued the interest of research gr...
By using first-principles calculation based on density functional theory and non-equilibrium Green's...
Abstract The structural, electrical, and magnetic properties of armchair black phosphorene nanoribbo...
Using first principles calculation the opto-electronic properties of blue phosphorene nanoribbons do...
Passivated phosphorene nanoribbons, armchair (a-PNR), diagonal (d-PNR), and zigzag (z-PNR), were inv...
We perform a comprehensive first-principles study of the electronic properties of phosphorene nanori...
Phosphorene is a graphene-like material with an intermediate band gap, in contrast to zero-gap graph...
Nanodevices based on monolayer black phosphorus or phosphorene are promising for future electron dev...
We study electronic and optical properties of single layer phosphorene quantum dots with various sha...
Abstract Electronic and optical responses of zigzag- and armchair-edge quasi-one-dimensional phospho...
In this work, first-principles calculations based on Density Functional Theory (DFT) were employed i...
Edge-induced gap states in finite phosphorene layers are examined using analytical models and densit...
Using first principles calculations we investigate the effect of external electric fields in the opt...
Recently, a phosphorus isomer named green phosphorus was theoretically predicted with a similar inte...
Few-layer black phosphorene has recently attracted significant interest in the scientific community....
Recently, a new semiconducting 2D material, black phosphorus, has piqued the interest of research gr...
By using first-principles calculation based on density functional theory and non-equilibrium Green's...
Abstract The structural, electrical, and magnetic properties of armchair black phosphorene nanoribbo...
Using first principles calculation the opto-electronic properties of blue phosphorene nanoribbons do...
Passivated phosphorene nanoribbons, armchair (a-PNR), diagonal (d-PNR), and zigzag (z-PNR), were inv...
We perform a comprehensive first-principles study of the electronic properties of phosphorene nanori...
Phosphorene is a graphene-like material with an intermediate band gap, in contrast to zero-gap graph...
Nanodevices based on monolayer black phosphorus or phosphorene are promising for future electron dev...
We study electronic and optical properties of single layer phosphorene quantum dots with various sha...