Engineering
Austenitic Stainless Steel
100%
Compressive Residual Stress
66%
Endurance Limit
100%
Fatigue Behavior
33%
Fatigue Crack
33%
Fatigue Limit
66%
Fatigue Performance
100%
Fatigue Property
33%
Mechanical Fatigue Test
33%
Nucleation Site
33%
Plastic Deformation
100%
Residual Stress
33%
Room Temperature
100%
Shot Peening
66%
Stress Condition
33%
Stress Gradient
33%
Stress Raiser
33%
Subsurface
66%
Tensiles
33%
Keyphrases
316L Austenitic Stainless Steel
16%
Austenitic Stainless Steel
100%
Beneficial Role
16%
Compressive Residual Stress
33%
Crack nucleation
16%
Endurance Limit
50%
Extreme Surfaces
16%
Fatigue Behavior
16%
Fatigue Crack
16%
Fatigue Limit
33%
Fatigue Performance
100%
Fatigue Properties
16%
Microstructure
16%
Microstructure Hardness
16%
Nucleation Site
16%
Nucleation Surface
16%
Peening
33%
Residual Stress Gradient
16%
Room Temperature
50%
Rotating Bending Fatigue Test
16%
Shot Impact
16%
Stress Conditions
16%
Stress Raiser
16%
Surface Crack
16%
Surface Mechanical Attrition Treatment
100%
Surface nucleation
16%
Surface Oxidation
16%
Surface Severe Plastic Deformation
100%
Surface Stress
16%
Material Science
Austenitic Stainless Steel
100%
Fatigue Behavior
20%
Fatigue Crack
20%
Machining
20%
Nucleation
80%
Plastic Deformation
100%
Residual Stress
60%
Surface (Surface Science)
100%
Surface Stress
20%