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Material Science
Surface Modification
100%
Nanocrystals
70%
Alloy
35%
Nanocrystalline
35%
Mechanical Property
29%
Residual Stress
13%
Laser Powder Bed Fusion
13%
Wear Resistance
11%
Microstructural Evolution
11%
Surface Roughness
10%
Ductility
9%
Fatigue Behavior
9%
Stainless Steel
8%
Shot Peening
8%
High Entropy Alloys
8%
Three Dimensional Printing
8%
Finite Element Method
7%
Plastic Deformation
7%
Grain Size
7%
Thermal Spray
7%
Fatigue of Materials
7%
Fretting Wear
6%
Coefficient of Friction
6%
Surface Treatment
6%
Elevated Temperature
5%
Grain Refinement
5%
Keyphrases
Ultrasonic Nanocrystal Surface Modification
73%
Surface Modification Techniques
41%
Ultrasonic Nanocrystalline Surface Modification
33%
Mechanical Properties
20%
Laser Powder Bed Fusion (L-PBF)
14%
Tribological Properties
11%
Microstructural Evolution
11%
Wear Resistance
9%
Tribological Behavior
9%
Ti-6Al-4V Alloy
8%
Surface Roughness
8%
Residual Stress
8%
Friction Coefficient
7%
Microstructure
7%
Strength-ductility Synergy
7%
Evolution Properties
7%
Thermal Spray
6%
Shot Peening
6%
Stainless Steel 316L (SS316L)
6%
Directed Energy Deposition
6%
Bevel Gear
6%
Laser Shock Peening
6%
Alloy 718
6%
CoCrNi Medium-entropy Alloy
6%
Thermally Sprayed
6%
Fretting Wear
6%
Heterostructure
6%
Gradient Structure
6%
Wear Mechanism
6%
Surface Hardness
5%
Compressive Residual Stress
5%
Modification Temperature
5%
Elevated Temperature
5%
Additive Manufacturing
5%
Fatigue Behavior
5%
Room Temperature
5%
Surface Modification
5%
Fatigue Performance
5%
Enhanced Strength
5%
Engineering
Ultrasonics
27%
Nanocrystal
17%
Nanocrystalline
11%
Alloy
6%
Bevel Gears
6%
Laser Powder Bed Fusion
6%
Finite Element Analysis
6%
Mechanical Property
5%
