Element doping is a universal way to improve the electronic and optical properties of two-dimensional (2D) materials. Here, we investigate the influence of group−ⅣA element (C, Si, Ge, Sn, and Pb) doping on the electronic and optical properties of the ZnS monolayer with a tetragonal phase by using first-principles calculations. The results indicate that the doping atoms tend to form tetrahedral structures with neighboring S atoms. In these doped models, the formation energies are all negative, indicating that the formation processes of the doped models will release energy. The formation energy is smallest for C−doped ZnS and gradually increases with the metallicity of the doping element. The doped ZnS monolayer retains a direct band gap, wi...
SnS is a metal monochalcogenide suitable for use as absorber material in thin film photovoltaic cell...
The paper presents the study of p-type doping properties of ZnS nanocrystals (Ncs) using the local d...
Direct bandgap, earth abundant semiconductors with Eg around 1.5 eV are essential for both photovol...
We revise the electronic and optical properties of ZnS on the basis of first principles simulations,...
By the help of density functional theory for a Cu doped ZnS compound the charge density, Fermi surf...
By employing first-principle total-energy calculations, a systematic study of the dopability of ZnS ...
Density functional theory calculations are used to investigate the origin of the experimentally obse...
Wide band gap semiconductor materials are extending significant applications in electronics and opto...
We have presented density functional theory calculations of electronic and optical properties of ZnS...
Semiconductor zinc sulphide (ZnS) has two common phases: hexagonal wurtzite and cubic zinc-blende st...
Zinc sulfide is an excellent candidate for the development of a p-type transparent conducting materi...
Doping is an important method to modulate the physical and chemical properties of two-dimensional ma...
First-principles calculations show that ZnSnN2 has a very small formation enthalpy, and the donor de...
The electronic properties of Te doped-ZnSb systems are investigated by first-principles calculations...
Density functional theory was used to study the structural and electronic properties of endohedrally...
SnS is a metal monochalcogenide suitable for use as absorber material in thin film photovoltaic cell...
The paper presents the study of p-type doping properties of ZnS nanocrystals (Ncs) using the local d...
Direct bandgap, earth abundant semiconductors with Eg around 1.5 eV are essential for both photovol...
We revise the electronic and optical properties of ZnS on the basis of first principles simulations,...
By the help of density functional theory for a Cu doped ZnS compound the charge density, Fermi surf...
By employing first-principle total-energy calculations, a systematic study of the dopability of ZnS ...
Density functional theory calculations are used to investigate the origin of the experimentally obse...
Wide band gap semiconductor materials are extending significant applications in electronics and opto...
We have presented density functional theory calculations of electronic and optical properties of ZnS...
Semiconductor zinc sulphide (ZnS) has two common phases: hexagonal wurtzite and cubic zinc-blende st...
Zinc sulfide is an excellent candidate for the development of a p-type transparent conducting materi...
Doping is an important method to modulate the physical and chemical properties of two-dimensional ma...
First-principles calculations show that ZnSnN2 has a very small formation enthalpy, and the donor de...
The electronic properties of Te doped-ZnSb systems are investigated by first-principles calculations...
Density functional theory was used to study the structural and electronic properties of endohedrally...
SnS is a metal monochalcogenide suitable for use as absorber material in thin film photovoltaic cell...
The paper presents the study of p-type doping properties of ZnS nanocrystals (Ncs) using the local d...
Direct bandgap, earth abundant semiconductors with Eg around 1.5 eV are essential for both photovol...