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Electrical conductivity of Ni-YSZ composites: Variants and redox cycling
Mikko Pihlatie
*
, A. Kaiser
, M.B. Mogensen
*
Corresponding author for this work
Technical University of Denmark (DTU)
Research output
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Contribution to journal
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Article
›
Scientific
›
peer-review
19
Citations (Scopus)
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Keyphrases
Electrical Conductivity
100%
Cermet
100%
NiO-YSZ
100%
Redox Cycling
100%
Conductive Loss
50%
Pre-oxidation
37%
Modified Microstructure
37%
High Temperature
25%
Undoped
25%
Particle Size
12%
Microstructure
12%
Scanning Electron Microscopy
12%
In Situ
12%
Steam
12%
Particle Loss
12%
High Conductivity
12%
Loss Rate
12%
Microstructural Changes
12%
Short-term Change
12%
Oxide Coatings
12%
4-point
12%
Al-Mg-Si
12%
Stable Conductivity
12%
Master Sintering Curve
12%
Conductivity Change
12%
Accelerating Effect
12%
Isothermal Reduction
12%
Isothermal Heating
12%
Loss Data
12%
Temperature Ramping
12%
Apparent Activation Energy
12%
Alces
12%
Ni Dopant
12%
Ni Sintering
12%
Ni Doping
12%
Heating Temperature
12%
Fine-grained Microstructure
12%
Wet Hydrogen
12%
INIS
electrical conductivity
100%
cermets
100%
microstructure
75%
losses
62%
reduction
50%
oxidation
37%
metals
25%
sintering
25%
comparative evaluations
12%
data
12%
heating
12%
doped materials
12%
coatings
12%
oxides
12%
particle size
12%
scanning electron microscopy
12%
hydrogen
12%
increasing
12%
high temperature
12%
steam
12%
particle losses
12%
curves
12%
activation energy
12%
nickel oxides
12%
Material Science
Composite Material
100%
Electrical Conductivity
100%
Protective Coating
100%
Sintering
25%
Doping (Additives)
12%
Oxide Coating
12%
Percolation
12%
Scanning Electron Microscopy
12%
Activation Energy
12%