Material Science
Residual Stress
100%
Stainless Steel
77%
Creep
75%
Carburization
71%
Surface (Surface Science)
66%
Austenitic Stainless Steel
61%
Finite Element Method
53%
Corrosion
49%
Brazing
30%
Austenite
26%
Carbide
24%
Nanoindentation
22%
Ultimate Tensile Strength
18%
Scanning Electron Microscopy
18%
Creep Property
17%
Welded Joint
16%
Yield Stress
16%
Hydrogen Embrittlement
16%
Proton-Exchange Membrane Fuel Cells
16%
Duplex Stainless Steel
15%
Stress Corrosion Cracking
15%
Creep-Fatigue Interaction
14%
Phase Composition
14%
Filler Metal
13%
Martensite
13%
Microstructural Evolution
13%
304 Stainless Steel
12%
Weld Metal
12%
Fracture Toughness
12%
Oxide Compound
11%
Finite Element Modeling
11%
High Strength Steel
11%
Damage Mechanics
10%
Heat Treatment
10%
Low-Cycle Fatigue
10%
Diffusivity
9%
Density
9%
Fracture Behavior
9%
Strain Rate
9%
Microhardness
8%
Elastic Moduli
8%
Shape Memory Effect
8%
Fatigue Behavior
8%
Crack Tip
8%
Fatigue Damage
7%
Corrosion Resistance
7%
Coarsening
7%
Fatigue of Materials
7%
Plastic Deformation
7%
Polysiloxane
7%
Engineering
Creep
53%
Residual Stress
52%
Weld
49%
Stainless Steel
45%
Finite Element Analysis
45%
Residual Welding Stress
24%
Steel Plate
20%
Austenitic Stainless Steel
19%
Low-Temperature
17%
Joints (Structural Components)
15%
Heat Affected Zone
13%
Brazing
13%
Damage Mechanics
13%
Experimental Result
12%
Stress Corrosion Cracking
12%
Low Cycle Fatigue
11%
Base Metal
11%
Filler Metal
11%
Weldment
11%
Proton-Exchange Membrane Fuel Cells
10%
Corrosion Behavior
10%
Fatigue Damage
9%
Carbon Concentration
9%
High Strength Steel
7%
Finite Element Simulation
6%
Elevated Temperature
6%
Corrosion Product
6%
Molten Nitrate Salt
6%
Hydrogen Embrittlement
6%
Thermal Stress
6%
Vacuum Brazing
6%
Fatigue Loading
6%
Expanded Austenite
5%
Strain Amplitude
5%
Damage Mechanism
5%
Electric Power Plant
5%
Creep Strain
5%
Scanning Electron Microscope
5%
304 Stainless Steel
5%
Heat Treatment
5%
Ultimate Tensile Strength
5%
Carburizing
5%