Superlattice Structures of Plant-sourced Nanomaterials Hybridized with Inorganic thin films for Thermoelectric Materials

Keyphrases

• Superlattice Structure 100%
• Nanomaterials 100%
• Thermoelectric Materials 100%
• Inorganic Thin Film 100%
• Biomaterials 66%
• Thermal Conductivity 66%
• CNF Films 66%
• Cellulose 33%
• Aluminum Oxide 33%
• Renewable Resources 33%
• Low Thermal Conductivity 33%
• Nanoelectronics 33%
• Phonons 33%
• Cellulosic Materials 33%
• Thermoelectric 33%
• Oxygen Molecule 33%
• Silica 33%
• Resistivity 33%
• Oxide Layer 33%
• Electrically Conductive 33%
• Multilayer Structure 33%
• SiO2-Al2O3 33%
• Individual Layer Thickness 33%
• Energy Security 33%
• Inherent Characteristics 33%
• ALD Process 33%
• Submonolayer 33%
• Alternating Layers 33%
• High Thermal Stability 33%
• Inorganic Oxides 33%
• Thin Film Deposition 33%
• Industry Transition 33%
• Optical Materials 33%
• Thermally Sensitive 33%
• Nanoarchitecture 33%
• Low-temperature ALD 33%

INIS

• layers 100%
• nanomaterials 100%
• thin films 100%
• superlattices 100%
• thermoelectric materials 100%
• thermal conductivity 75%
• films 50%
• biological materials 50%
• applications 25%
• thickness 25%
• oxides 25%
• molecules 25%
• stability 25%
• hybridization 25%
• low temperature 25%
• cellulose 25%
• industry 25%
• sensors 25%
• diffusion 25%
• deposition 25%
• fossils 25%
• raw materials 25%
• oxygen 25%
• nanostructures 25%
• stacks 25%
• zinc oxides 25%
• renewable resources 25%
• phonons 25%
• nanoelectronics 25%
• blocking 25%
• energy security 25%

Material Science

• Superlattice 100%
• Nanostructured Material 100%
• Thermal Conductivity 100%
• Carbon Nanofiber 100%
• Thermoelectric Materials 100%
• Thin Films 100%
• Al2O3 66%
• Biomaterial 66%
• Film 66%
• Thermal Stability 33%
• Thermoelectrics 33%
• ZnO 33%
• Electrical Resistivity 33%
• Thin Film Deposition 33%
• Optical Material 33%
• Oxide Compound 33%
• Laminate 33%