Nanoscale Texturing and Interfaces in Compositionally Modified Ca₃Co₄O₉ with Enhanced Thermoelectric Performance

Keyphrases

• Thermoelectric Performance 100%
• Ca3Co4O9 100%
• Oxides 50%
• Platelets 50%
• Transport Properties 50%
• Interface Engineering 50%
• Layered Structure 50%
• Thermally Stable 50%
• Phonon Scattering 50%
• Nanostructured Materials 50%
• Chemically Stable 50%
• Power Output 50%
• Strong Anisotropy 50%
• Low Thermal Conductivity 50%
• High Temperature Thermoelectric 50%
• Metallic Alloys 50%
• Oxidizing Environment 50%
• Figure of Merit ZT 50%
• Layered Nanostructure 50%
• High-Z Materials 50%
• Thermoelectric Measurements 50%
• Sintering Pressure 50%
• Spark Plasma 50%
• Spark Plasma Sintering 50%
• Conventional Sintering 50%
• Environment Cost 50%
• Spark Plasma Sintering Technique 50%
• ZT Value 50%
• Oxide Thermoelectrics 50%
• Nanoscale Spacing 50%
• Thermoelectric Oxides 50%
• Full-size Model 50%
• Metallic Inclusions 50%
• Measurement Direction 50%

Engineering

• Thermoelectrics 100%
• Texturing 100%
• Nanoscale 100%
• Nanomaterial 40%
• Spark Plasma Sintering 40%
• Engineering 20%
• Applicability 20%
• Output Power 20%
• Platelet 20%
• Layered Structure 20%
• Low Thermal Conductivity 20%
• Thermoelectric Materials 20%
• Nanostructure 20%
• Alloy 20%
• Polycrystalline 20%
• Figure of Merit 20%
• Sintering 20%
• Metallic Inclusion 20%

Material Science

• Thermoelectrics 100%
• Oxide Compound 60%
• Nanocrystalline Material 40%
• Spark Plasma Sintering 40%
• Oxidation Reaction 20%
• Anisotropy 20%
• Thermoelectric Materials 20%
• Thermal Conductivity 20%
• Sintering 20%
• Alloy 20%
• Platelet 20%