In-operando degradation studies of zirconia electrolyte supported solid oxide cells under harsh operating conditions

Keyphrases

• Solid Oxide Cells 100%
• Working Conditions 100%
• Zirconia Electrolyte 100%
• Electrolyte-supported 100%
• Degradation Study 100%
• In Operando 100%
• Harsh Operating Conditions 100%
• Electrolyte 75%
• Electrochemical Impedance Spectroscopy 75%
• High Temperature 50%
• X Ray Diffraction 50%
• High Polarization 50%
• Sample Stage 50%
• YSZ Electrolyte 50%
• Strain Mapping 50%
• Microstructural Study 25%
• Grain Size 25%
• Electrochemical Reactions 25%
• X-ray 25%
• Degradation Mechanism 25%
• X-ray Powder Diffraction 25%
• Scanning Electron Microscopy/energy Dispersive Spectroscopy 25%
• X-ray Study 25%
• Void Growth 25%
• Energy Production 25%
• Fabrication Methods 25%
• Electron Microscopy 25%
• Region of Interest 25%
• Microscopy 25%
• Generated Power 25%
• Microstructural Characterization 25%
• Pt Electrode 25%
• Individual Grains 25%
• NiPt 25%
• Novel Technique 25%
• Internal Processes 25%
• Energy Storage 25%
• ScYSZ 25%
• Elemental Composition 25%
• Ni-YSZ Electrode 25%
• LSM-YSZ 25%
• Reverse Mode 25%
• Characterization Tools 25%
• Gas Environment 25%
• Cyclic Mode 25%
• Dark Field 25%
• Multigrain Crystallography 25%
• Grain Scale 25%
• Challenging Samples 25%

Engineering

• Ray Diffraction 100%
• Degradation Mechanism 50%
• Energy Production 50%
• Generate Electricity 50%
• Fabrication Method 50%
• Major Problem 50%
• Elemental Composition 50%
• X-Ray Powder Diffraction 50%
• Gas Environment 50%
• Region of Interest 50%
• Pt Electrode 50%
• Internal Process 50%
• Individual Grain 50%
• Energy Engineering 50%
• Void Growth 50%

Material Science

• Zirconia 100%
• Dielectric Spectroscopy 100%
• Oxide Compound 100%
• X-Ray Diffraction 66%
• Scanning Electron Microscopy 33%
• Grain Size 33%
• X Ray Powder Diffraction 33%
• Electrochemical Reaction 33%
• Electron Microscopy 33%
• Void Growth 33%
• Crystallography 33%