Microstructure and performance investigation of a solid oxide fuel cells based on highly asymmetric YSZ microtubular electrolytes

Keyphrases

• Cell-based 100%
• Microtubules 100%
• Solid Oxide Fuel Cell 100%
• Electrolyte 100%
• Performance Investigation 100%
• Yttria-stabilized Zirconia 100%
• Hollow Fiber 100%
• Microstructure Investigation 100%
• Fuel Cell Performance 66%
• Ni Layer 66%
• Performance Measurement 33%
• Mechanical Strength 33%
• Mechanical Support 33%
• Wall Thickness 33%
• Hydrogen Environment 33%
• Three-point Bending Test 33%
• Sintering Process 33%
• Inner Layer 33%
• Phase Inversion 33%
• Asymmetric Structure 33%
• Electroless Plating 33%
• Current Collection 33%
• Micro-tubular SOFC 33%
• Micro-tubular Solid Oxide Fuel Cell (MT-SOFC) 33%
• Anodic Current 33%
• Composite Anode 33%
• Maximum Power Density 33%
• Finger-like 33%
• Alcoholic 33%
• Electrolyte-supported 33%
• Stabilized Zirconia 33%
• Zirconia Particles 33%
• Electroless Ni 33%
• External Diameter 33%
• Slurry Coating 33%
• Tight Sandstone 33%
• Lanthanum Strontium Manganite 33%
• Nickel Anode 33%

Engineering

• Solid Oxide Fuel Cell 100%
• Hollow Fibre 100%
• Yttria-Stabilized Zirconia 100%
• Solid Oxide Fuel Cells Performance 66%
• Sintering 66%
• Phase-Inversion 33%
• Outer Surface 33%
• Maximum Power Density 33%
• Three-Point Bending Test 33%
• Lanthanum Strontium Manganite 33%
• Outer Layer 33%
• Tight Gas 33%
• External Diameter 33%
• Electroless Plating 33%

Material Science

• Oxide Compound 100%
• Yttria Stabilized Zirconia 100%
• Anode 75%
• Sintering 50%
• Density 25%
• Lanthanum 25%
• Strontium 25%
• Zirconia 25%
• Oxidant 25%
• Cathode 25%
• Electroless Deposition 25%
• Strength of Materials 25%