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Ablation resistance of tungsten carbide cermets under extreme conditions
Samuel A. Humphry-Baker
*
, Prabhu Ramanujam
, George D.W. Smith
,
Jon Binner
, William E. Lee
*
Corresponding author for this work
Metallurgy and Materials
Research output
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Article
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peer-review
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Keyphrases
Cermet
100%
Tungsten Carbide
100%
Ablation Resistance
100%
Volatilization
60%
Surface Temperature
40%
Mass Loss
40%
Tungsten
40%
Low Volatility
40%
Oxyacetylene Torch
40%
Air Ingress
40%
Ablation
20%
Liquid Phase
20%
Kinetic Analysis
20%
FeNi
20%
Reactor
20%
Air Flow Rate
20%
Unusual Behavior
20%
Low Melting Point
20%
Peak Temperature
20%
Oxide Formation
20%
Nozzle
20%
Fusion Reactor
20%
Tungsten Oxide
20%
Extreme Working Conditions
20%
Dispersion Mechanism
20%
Shielding Materials
20%
Oxide Scale Formation
20%
Cobalt-free
20%
Reactor Accident
20%
Accident Tolerant
20%
FeWO4
20%
Thermogravimetric Kinetics
20%
Engineering
Cermet
100%
Extreme Condition
100%
Vaporization
75%
Mass Loss
50%
Melting Point
25%
Kinetics Analysis
25%
Fits and Tolerances
25%
Liquid Phase
25%
Peak Temperature
25%
Oxide Scale
25%
Airflow Rate
25%
Shielding Material
25%
Fusion Reactor
25%
Material Science
Carbide
100%
Tungsten
100%
Protective Coating
100%
Cermet
80%
Surface (Surface Science)
40%
Oxide Compound
40%
Cobalt
20%
Chemical Engineering
Tungsten Carbide
100%