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Modeling of stress corrosion cracking in plastic pipes
B. H. Choi
*
, Z. Zhou
, A. Chudnovsky
*
Corresponding author for this work
Research output
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Chapter in Book/Report/Conference proceeding
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Conference contribution
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Dive into the research topics of 'Modeling of stress corrosion cracking in plastic pipes'. Together they form a unique fingerprint.
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Engineering
Stress Corrosion Cracking
100%
Plastic Pipe
100%
Stress Corrosion Crack
62%
Crack Initiation
25%
Crack Propagation
25%
Mechanical Stress
25%
Conservative Estimate
25%
Crack Growth
25%
Failure Time
25%
Crack Growth Rate
12%
Numerical Solution
12%
Engineering
12%
Process Chemical
12%
Major Part
12%
Stress-Intensity Factor
12%
Multiple Crack
12%
Fracture Initiation
12%
Materials Degradation
12%
Failure Process
12%
Related Failure
12%
Cluster Formation
12%
Crack Cluster
12%
Layer Theory
12%
Initiation Time
12%
Surface Layers
12%
Keyphrases
Stress Corrosion Cracking
100%
Plastic pipes
100%
Crack Growth
23%
Mechanical Stress
15%
Chemically Aggressive Environment
15%
Failure Time
15%
Corrosion Crack Propagation
15%
Individual Stress
15%
Numerical Solution
7%
Strongly Coupled
7%
Surface Layer
7%
Mechanochemical Process
7%
Four-stage
7%
Crack Initiation
7%
Stress Intensity Factor
7%
Microcracks
7%
Material Degradation
7%
Fracture Initiation
7%
Engineering Thermoplastics
7%
Nonlinear System of Differential Equations
7%
Multiple Cracks Interaction
7%
Crack Layer Theory
7%
Stress-only
7%
Ultimate Failure
7%
Related Failure
7%
Cluster Formation
7%
Failure Process
7%
Stress Corrosion
7%
Crack Cluster
7%
Crack Initiation Time
7%
Dynamic Growth
7%
Material Science
Stress Corrosion Cracking
100%
Crack Growth
21%
Crack Initiation
14%
Mechanical Stress
14%
Crack Propagation
14%
Thermoplastics
7%
Materials Degradation
7%
Stress Intensity Factor
7%
Surface (Surface Science)
7%