Potassium doping optimization in proton-conducting Ba_1-xK_xCe_0.6Zr_0.2Y_0.2O_3-δ oxides for fuel cell applications

Keyphrases

• Fuel Cell Applications 100%
• Oxides 100%
• Electrolyte 100%
• Proton Conductivity 100%
• K Doping 100%
• Potassium Doping 100%
• Doping Optimization 100%
• Exchange Method 66%
• Chemical Stability 33%
• Citrate 33%
• Proton Conduction 33%
• Calcination 33%
• Sol-gel 33%
• Cell Experiment 33%
• Improvement Mechanism 33%
• Sol-gel Process 33%
• K-doped 33%
• Particle Characteristics 33%
• Sinterability 33%
• Hydrogen-air Fuel Cell 33%
• High Relative Density 33%
• Powder Density 33%
• Gel Composition 33%
• Dense Microstructure 33%
• Doping Content 33%
• Ceramic Pellets 33%
• Proton Conducting Fuel Cells 33%

Material Science

• Oxide Compound 100%
• Potassium 100%
• Density 66%
• Sol-Gel 66%
• Powder 33%
• Carbon Dioxide 33%

Chemical Engineering

• Ethylenediaminetetraacetic Acid 100%