Material Science
Single Crystal
100%
Superalloys
87%
Creep
55%
Fatigue of Materials
40%
Ni-based Single Crystal Superalloy
38%
Film
31%
Creep Property
26%
Fatigue Behavior
23%
Low-Cycle Fatigue
23%
Nickel-Based Superalloys
20%
Surface (Surface Science)
20%
Finite Element Method
18%
Crystal Plasticity
17%
Scanning Electron Microscopy
13%
Crystal Orientation
12%
Plasticity Theory
10%
Crack Propagation
10%
Grain Boundary
10%
Crack Initiation
9%
Composite Material
9%
Yield Stress
8%
Fatigue Crack
7%
Heat Treatment
7%
Tensile Property
7%
Oxide Compound
6%
Volume Fraction
6%
Thermal Fatigue
6%
Crack Growth
6%
Fatigue Damage
5%
Anisotropy
5%
Stress Concentration
5%
Strain Rate
5%
Engineering
Single Crystal Superalloys
75%
Creep
52%
Cooling Hole
46%
Blade Turbine
36%
Fatigue Life
29%
Low Cycle Fatigue
26%
Fatigue Behavior
19%
Finite Element Analysis
16%
Creep Behavior
14%
Crystallographic Orientation
14%
Resolved Shear Stress
13%
Slip System
11%
Plasticity Theory
11%
Crystal Orientation
10%
Anisotropic
10%
Creep Test
10%
Life Prediction
10%
Mechanical Fatigue Test
9%
Crack Initiation
9%
Tensile Property
8%
Fracture Mechanism
8%
Stress Concentration
8%
Constitutive Model
8%
Fatigue Property
7%
Yield Point
7%
Life Prediction Model
7%
Notched Specimen
6%
Fracture Surface
6%
Room Temperature
6%
Experimental Result
6%
Fatigue Life Prediction
6%
Temperature Gradient
6%
Thermal Gradient
6%
Simulation Result
6%
Good Agreement
5%
Equivalent Initial Flaw Size
5%
Microstructure Evolution
5%
Aero-Engines
5%
Elevated Temperature
5%
Damage Evolution
5%
Tensiles
5%
High Cycle Fatigue
5%
Crack Tip
5%
