We investigate the transport properties in a zigzag silicene nanoribbon in the presence of an external electric field. The staggered sublattice potential and two kinds of Rashba spin-orbit couplings can be induced by the external electric field due to the buckled structure of the silicene. A bulk gap is opened by the staggered potential and gapless edge states appear in the gap by tuning the two kinds of Rashba spin-orbit couplings properly. Furthermore, the gapless edge states are spin-filtered and are insensitive to the non-magnetic disorder. These results prove that the quantum spin Hall effect can be induced by an external electric field in silicene, which may have certain practical significance in applications for future spintronics de...
We study the spin transport in a zigzag silicene nanoribbon (ZSNR) ferromagnetic junction with diffe...
The low-energy physics of silicene is described by Dirac electrons with a strong spin-orbit interact...
By performing first-principle quantum transport calculations, we predict a giant magnetoresistance i...
Silicene consists of a monolayer of silicon atoms in a buckled honeycomb structure. It was recently ...
Graphene is nowadays a famous material due to its exquisite properties and potential applications. H...
Silicene takes precedence over graphene due to its buckling type structure and strong spin orbit cou...
Abstract. Silicene consists of a monolayer of silicon atoms in a buckled honeycomb structure. It was...
In an effort to surmount the issues that arise when attempting to scale transistors down to the low ...
The low-buckled material silicene undergoes abundant topological phase transitions under external fi...
A mechanism to generate a spin-polarized current in a two-terminal zigzag silicene nanoribbon is pre...
It has been widely accepted that silicene is a topological insulator, and its gap closes first and t...
Silicene is a graphene-like material with relatively strong spin-orbit coupling exhibiting gapless t...
Quantum Spin Hall (QSH) has potential applications in low energy consuming spintronic devices and ha...
A theoretical study is presented on spin-dependent electronic properties in reconstructed zigzag edg...
Quantum Spin Hall (QSH) has potential applications in low energy consuming spintronic devices and ha...
We study the spin transport in a zigzag silicene nanoribbon (ZSNR) ferromagnetic junction with diffe...
The low-energy physics of silicene is described by Dirac electrons with a strong spin-orbit interact...
By performing first-principle quantum transport calculations, we predict a giant magnetoresistance i...
Silicene consists of a monolayer of silicon atoms in a buckled honeycomb structure. It was recently ...
Graphene is nowadays a famous material due to its exquisite properties and potential applications. H...
Silicene takes precedence over graphene due to its buckling type structure and strong spin orbit cou...
Abstract. Silicene consists of a monolayer of silicon atoms in a buckled honeycomb structure. It was...
In an effort to surmount the issues that arise when attempting to scale transistors down to the low ...
The low-buckled material silicene undergoes abundant topological phase transitions under external fi...
A mechanism to generate a spin-polarized current in a two-terminal zigzag silicene nanoribbon is pre...
It has been widely accepted that silicene is a topological insulator, and its gap closes first and t...
Silicene is a graphene-like material with relatively strong spin-orbit coupling exhibiting gapless t...
Quantum Spin Hall (QSH) has potential applications in low energy consuming spintronic devices and ha...
A theoretical study is presented on spin-dependent electronic properties in reconstructed zigzag edg...
Quantum Spin Hall (QSH) has potential applications in low energy consuming spintronic devices and ha...
We study the spin transport in a zigzag silicene nanoribbon (ZSNR) ferromagnetic junction with diffe...
The low-energy physics of silicene is described by Dirac electrons with a strong spin-orbit interact...
By performing first-principle quantum transport calculations, we predict a giant magnetoresistance i...