Thermodynamics of solid electrolytes and related oxide ceramics based on the fluorite structure

Engineering & Materials Science

• Fluorspar 100%
• Solid electrolytes 85%
• Positive ions 75%
• Interfacial energy 75%
• Thoria 53%
• Thermodynamics 52%
• Oxides 52%
• Oxygen vacancies 46%
• Apatite 45%
• Gate dielectrics 43%
• Perovskite 41%
• Vacancies 41%
• Yttria stabilized zirconia 40%
• Calorimetry 39%
• Thermal barrier coatings 39%
• Cerium oxide 38%
• Nanostructured materials 37%
• Rare earths 37%
• Zirconia 35%
• Uranium 35%
• Refractory materials 33%
• Solid oxide fuel cells (SOFC) 32%
• Enthalpy 31%
• Substitution reactions 30%
• Electrolytes 29%
• Thermodynamic properties 28%
• Catalysts 25%
• Temperature 12%

Chemical Compounds

• Fluorite 73%
• Solid Electrolyte 60%
• Interfacial Energy 59%
• Enthalpy of Formation 58%
• Ceramic 46%
• Thorium Dioxide 46%
• Nuclear Material 45%
• Thermal Barrier Coating 41%
• Thermodynamics 37%
• Cation 35%
• Oxide 32%
• Apatite 32%
• Refractory 31%
• Calorimetry 28%
• Thermodynamic Property 26%
• Dielectric Material 26%
• Lanthanoid Atom 22%
• Molecular Cluster 19%
• Substitution Reaction 19%
• Nanomaterial 19%
• Dioxygen 14%
• Catalyst 12%