Microstructure modification in the electrodes to enhance performance of the anode-supported solid oxide fuel cell

Keyphrases

• Performance Enhancement 100%
• La0.8Sr0.2MnO3 100%
• Anode-supported Solid Oxide Fuel Cell 100%
• Microstructure Modification 100%
• Cermet 75%
• Cell Performance 50%
• Electrolyte 50%
• Functional Layer 50%
• Anode Support 25%
• Particle Size 25%
• High Current 25%
• Power Output 25%
• Power Density 25%
• Density Increase 25%
• Electrode Materials 25%
• Cell Operation 25%
• Submicron 25%
• Interfacial Reaction 25%
• Current Loading 25%
• Nanosize 25%
• Electrochemical Reactions 25%
• Typical Cell 25%
• Ion Conductivity 25%
• Maximum Power Density 25%
• Yttria-stabilized Zirconia 25%
• Local Region 25%
• Composition Effect 25%
• Microstructural 25%
• NiO-YSZ 25%
• Small Grain Size 25%
• Triple Phase Boundary 25%
• Reaction Sites 25%
• Reaction Efficiency 25%
• Microstructure Analysis 25%
• Boundary Density 25%
• Particle Porosity 25%
• Particle Microstructure 25%
• Cathode Functional Layer 25%
• Cathode Interlayer 25%
• Nanometer Structure 25%
• Oxygen Exchange 25%
• Particle Refinement 25%
• Traditional Materials 25%
• Layer Modification 25%
• Elevation Analysis 25%

Material Science

• Anode 100%
• Density 100%
• Cathode 100%
• Cermet 100%
• Anode-Supported Solid Oxide Fuel Cells 100%
• Grain Size 33%
• Electrochemical Reaction 33%
• Composition Effect 33%
• Yttria Stabilized Zirconia 33%
• Microstructural Analysis 33%
• Composite Material 33%
• Phase Interface 33%

Engineering

• Solid Oxide Fuel Cell 100%
• Yttria-Stabilized Zirconia 100%
• Cermet 60%
• Cell Performance 40%
• Functional Layer 40%
• Power Output 20%
• Power Density 20%
• Cell Operation 20%
• Nanometre 20%
• Phase Boundary 20%
• Maximum Power Density 20%
• Local Region 20%
• Porosity 20%