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Li Jiao
School of Mechanical Engineering
h-index
1682
Citations
22
h-index
Calculated based on number of publications stored in Pure and citations from Scopus
2001
2024
Research activity per year
Overview
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Research output
(131)
Similar Profiles
(12)
Fingerprint
Dive into the research topics where Li Jiao is active. These topic labels come from the works of this person. Together they form a unique fingerprint.
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Engineering
Cutting Force
100%
Grinding (Machining)
96%
Surface Quality
87%
End Milling
68%
Fractal Dimension
59%
High Strength Steel
51%
Ultrasonics
51%
Monocrystal
51%
Machined Surface
44%
Surface Integrity
42%
Cutting Fluid
42%
Milling Micro
39%
Finite Element Method
36%
Feed Rate
34%
Finite Element Modeling
34%
Machining Quality
34%
Cutting Parameter
33%
Rake Angle
33%
Experimental Result
31%
Cutting Performance
28%
Cutting Speed
27%
Ground Surface
27%
Thrust Force
27%
Grinding Machine
25%
Ti-6al-4v
25%
Mesoscale
25%
Robot
25%
Residual Stress
24%
Illustrates
23%
Obtains
22%
Mathematical Model
22%
Simulation Result
21%
Surface Topography
21%
Austenitic Stainless Steel
21%
Material Removal
20%
Strain Rate
20%
Experimental Investigation
20%
Roundness
20%
Process Parameter
19%
Microstructure
18%
Inclination Angle
18%
Fatigue Life
18%
High Strain Rate
18%
Milling Cutters
18%
Cantilever Beam
17%
Great Influence
17%
Deep Hole
17%
Intrinsic Mode Function
17%
Gas Fuel Manufacture
17%
Rate of Convergence
17%
Material Science
Machining
92%
Surface Roughness
76%
Surface Texture
46%
Fretting
41%
Cutting Fluid
40%
Fatigue of Materials
34%
Conformal Contact
34%
Diamond
32%
Surface Topography
30%
Residual Stress
29%
Fretting Fatigue
29%
Surface Property
28%
Superalloys
27%
Sapphire
25%
Nickel-Based Superalloys
25%
Corrosion
25%
Strain Rate
25%
High Entropy Alloys
25%
Crack Initiation
23%
Finite Element Method
19%
Magnesium Alloy
18%
Carbon Dioxide
17%
Optical Glass
17%
Shaft
17%
High Strength Steels
17%
Fretting Wear
14%
Nucleation
13%
Ceramic Material
12%
Finite Element Modeling
12%
Titanium Alloys
12%
Ti-6Al-4V
11%
Hydrodynamics
11%
Lubrication
10%
Silicon Dioxide
10%
Brittleness
10%
Polishing
10%
Microstructure
10%
Contact Area
10%
Crack Propagation
10%
Fatigue Crack
10%
Yield Stress
10%
Aluminum Alloys
10%
Density
9%
Biaxial Fatigue
8%
Sliding Wear
8%
Surface Finishing
8%
Non-Conformal Contact
8%
Low Temperature Lubricant
8%
Fatigue Behavior
8%
Stress Concentration Factor
8%
