Effects of Thermal Aging on Material Properties, Stress Corrosion Cracking, and Fracture Toughness of AISI 316L Weld Metal

Physics & Astronomy

• boiling water reactors 100%
• stress corrosion cracking 88%
• embrittlement 77%
• fracture strength 66%
• stainless steels 59%
• cracks 51%
• decomposition 51%
• toughness 47%
• ductility 44%
• casts 39%
• ferrites 38%
• metals 34%
• degradation 33%
• ferritic stainless steels 32%
• air 26%
• characterization 24%
• operating temperature 23%
• nanoindentation 22%
• hardness 17%
• hydrogen 13%
• temperature 13%
• water 12%

Engineering & Materials Science

• Thermal aging 84%
• Stress corrosion cracking 74%
• Spinodal decomposition 65%
• Fracture toughness 60%
• Materials properties 56%
• Welds 53%
• Boiling water reactors 51%
• Embrittlement 48%
• Metals 43%
• Crack propagation 34%
• Temperature 26%
• Ferrite 26%
• Toughness 25%
• Ductility 23%
• Characterization (materials science) 23%
• Stainless steel 23%
• Aging of materials 21%
• Degradation 18%
• Nanoindentation 16%
• Ferritic stainless steel 15%
• Air 14%
• Austenitic stainless steel 12%
• Hydrogen 10%
• Hardness 10%
• Water 7%
• Testing 6%

Chemical Compounds

• Spinodal Decomposition 94%
• Thermal Aging 89%
• Embrittlement 89%
• Stress Corrosion Cracking 88%
• Fracture Toughness 75%
• Boiling 66%
• Ductility 52%
• Reduction 30%
• Metal 30%
• Time 16%
• Environment 12%
• Hydrogen 11%