Two-dimensional ternary chalcogenides FeX2Y4 (X=Ga, In; Y= S, Se, Te): Promising materials for sustainable energy

Keyphrases

• Two Dimensional 100%
• Sustainable Energy 100%
• Sustainable Energy Consumption 100%
• Ternary Chalcogenides 100%
• Layered Chalcogenides 100%
• First-principles Calculations 50%
• Electronic Properties 50%
• Graphene 50%
• CO2 Reduction Reaction (CO2RR) 50%
• Band Gap 50%
• Room Temperature 50%
• High Performance 50%
• Photocatalyst 50%
• Optical Properties 50%
• Thermal Properties 50%
• Transition Metal Dichalcogenides 50%
• Molecular Dynamics Simulation 50%
• Photoelectrochemical Water Splitting 50%
• Electronic Transport Properties 50%
• Thermoelectric 50%
• Photovoltaic Applications 50%
• Photovoltaic Absorber 50%
• Absorber Material 50%
• Thermally Stable 50%
• Cadmium Telluride 50%
• Technological Applications 50%
• Narrow Gap 50%
• Hydrogen Evolution Reaction 50%
• Thermal Transport Properties 50%
• Gap Edge 50%
• Temperature Lattice 50%
• Exfoliation Energy 50%
• Mechanical Exfoliation 50%
• 2D Layered Materials 50%
• Lattice Thermal Conductivity 50%
• Tunable Magnetic Properties 50%
• Non-magnetic Semiconductors 50%
• Thin Absorber 50%
• Optical Transport 50%
• Band Edge Position 50%
• Band Gap Value 50%
• Optical Absorption Spectra 50%
• Synthesis of Monolayer 50%
• Tunable Optical Properties 50%
• Thermoelectric Applications 50%
• CuInSe2 50%
• Tunable Electronic Properties 50%
• FeIn2S4 50%
• Spectroscopic Limited Maximum Efficiency 50%
• Photocatalysis Applications 50%
• Hexagonal Crystal Structure 50%
• Phonon Dispersion 50%

Material Science

• Monolayers 100%
• Chalcogenides 100%
• Electronic Property 33%
• Thermoelectrics 33%
• Photovoltaics 33%
• Optical Property 33%
• Carbon Dioxide 16%
• Crystal Structure 16%
• Graphene 16%
• Transition Metal Dichalcogenide 16%
• Thermal Conductivity 16%
• Thin Films 16%
• Photocatalysts 16%
• Thermal Property 16%
• Water Splitting 16%
• Absorption Spectrum 16%
• Magnetic Property 16%
• Photocatalysis 16%
• Hydrogen Evolution 16%
• Layered Material 16%