We present theoretical studies of the linear-k strain induced spin splitting of the conduction band in the zinc-blende semiconductors. The studies are based on ab initio calculations performed within the density functional theory with non-scalar relativistic effects fully taken into account. This permits one to construct effective Hamiltonian for the strain induced linear-k spin splitting of the zinc-blende semiconductors. This Hamiltonian reproduces fully the structure of the strain induced linear-k spin splitting and generalizes previously introduced and commonly used effective Hamiltonian
Results of first-principles full potential calculations of absolute position of valence and conducti...
International audienceFirst-principles simulations are conducted to predict that ferroelectric nitri...
We use empirical spsd5 tight-binding calculations to determine the effects of compressive biaxial la...
We present a theory for two recent experiments in bulk strained semiconductors and show that a new, ...
The momentum-dependent spin splitting in the conduction band couples orbital motion to spin and enab...
We investigate the elastic properties of selected zinc-blende III-V semiconductors. Using hybrid fun...
The compositional as well as structural asymmetries in Janus transition metal dichalcogenides (J-TMD...
We theoretically study the electronic structure and spin splitting of a strained GaAs(001) surface w...
We derive first- and second-order piezoelectric coefficients for the zinc-blende III-V semiconductor...
International audienceA symmetry-based thermodynamical model of third-order electro-elastic coupling...
The elastic and dielectric properties of binary III-N wurtzite semiconductors have been investigated...
AbstractWe theoretically study the electronic structure and spin splitting of a strained GaAs(001) s...
A spin-dependent variational theory is used to analyze the Rashba spin-orbit splitting in two-dimens...
An approach to analyzing the spinor wave functions that appear in the electronic structure calculati...
Spin-gapless semiconductors are considered as promising candidates for spintronic and magnetoelectro...
Results of first-principles full potential calculations of absolute position of valence and conducti...
International audienceFirst-principles simulations are conducted to predict that ferroelectric nitri...
We use empirical spsd5 tight-binding calculations to determine the effects of compressive biaxial la...
We present a theory for two recent experiments in bulk strained semiconductors and show that a new, ...
The momentum-dependent spin splitting in the conduction band couples orbital motion to spin and enab...
We investigate the elastic properties of selected zinc-blende III-V semiconductors. Using hybrid fun...
The compositional as well as structural asymmetries in Janus transition metal dichalcogenides (J-TMD...
We theoretically study the electronic structure and spin splitting of a strained GaAs(001) surface w...
We derive first- and second-order piezoelectric coefficients for the zinc-blende III-V semiconductor...
International audienceA symmetry-based thermodynamical model of third-order electro-elastic coupling...
The elastic and dielectric properties of binary III-N wurtzite semiconductors have been investigated...
AbstractWe theoretically study the electronic structure and spin splitting of a strained GaAs(001) s...
A spin-dependent variational theory is used to analyze the Rashba spin-orbit splitting in two-dimens...
An approach to analyzing the spinor wave functions that appear in the electronic structure calculati...
Spin-gapless semiconductors are considered as promising candidates for spintronic and magnetoelectro...
Results of first-principles full potential calculations of absolute position of valence and conducti...
International audienceFirst-principles simulations are conducted to predict that ferroelectric nitri...
We use empirical spsd5 tight-binding calculations to determine the effects of compressive biaxial la...