Spectroscopic Comparison of Thermal Transport at Organic-Inorganic and Organic-Hybrid Interfaces Using CsPbBr₃ and FAPbBr₃ (FA = Formamidinium) Perovskite Nanocrystals

Keyphrases

• Hybrid Interface 100%
• Thermal Transport 100%
• Organic Hybrid 100%
• Organic-inorganic Hybrid 100%
• CsPbBr3 100%
• Perovskite Nanocrystals 100%
• FAPbBr3 100%
• Formamidinium Perovskite 100%
• Semiconductors 80%
• Organic Ligands 60%
• Nanocrystals 40%
• Low Energy 40%
• Organic Cation 40%
• Phonon Modes 40%
• Sublattice 40%
• Thermal Equilibration 40%
• Semiconductor Bandgap 40%
• Tribromide 40%
• High Energy 20%
• Vibrational Structure 20%
• Thermal Process 20%
• Phonons 20%
• Heat Flow 20%
• Optical Excitation 20%
• Hybrid Organic-inorganic 20%
• Active Layer 20%
• Perovskite 20%
• Surface Binding 20%
• Ab Initio Molecular Dynamics Simulation 20%
• Cesium 20%
• Temperature Gradient 20%
• Perovskite Materials 20%
• Formamidinium 20%
• Ligand Shell 20%
• Optoelectronic Technology 20%
• All-inorganic 20%
• Heat Transfer 20%
• Time Response 20%
• N-of-1 20%
• Hybrid Perovskites 20%
• Heat-induced Changes 20%
• Thermal Excitation 20%
• Phonon Density of States 20%
• Inorganic Anions 20%
• Heat Transfer Process 20%
• Simulation Support 20%
• Thermal Population 20%
• Infrared Excitation 20%
• Intramolecular Vibrational Relaxation 20%
• CsPbBr3 Nanocrystals 20%
• Interfacial Heat Transfer 20%

Chemistry

• Phonons 100%
• Perovskite Nanocrystal 100%
• Nanocrystalline Material 100%
• Band Gap 66%
• Optoelectronics 66%
• Organic Cation 66%
• Photoexcitation 33%
• Vibrational Relaxation 33%
• Inorganic Cation 33%
• Phonon Density of State 33%
• Cesium 33%
• Molecular Dynamics 33%
• Photobleaching 33%

Material Science

• Transfer Process 100%
• Cesium 100%
• Perovskite Nanocrystal 100%
• Surface (Surface Science) 100%
• Density 100%