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Keyphrases
Armchair
28%
Body Force
28%
Calculation Method
28%
Complex Surface
28%
Contact Angle
28%
Couette Flow
38%
Cylindrical Droplet
28%
Depth-dependent
28%
Double-walled Carbon Nanotubes (DWCNTs)
57%
Double-walled Nanotubes
21%
Droplet Size
28%
Dynamic Friction
28%
Dynamic Friction Coefficient
28%
Dynamic Friction Force
21%
External Body
28%
Friction
36%
Friction Coefficient
28%
Glass Transition Temperature
31%
Grafting Density
28%
Hard Surfaces
28%
High Temperature
24%
High Viscosity
26%
Hydration Shell
28%
Hydrodynamic Boundary Conditions
67%
Lennard-Jones Fluid
57%
Model Simulation
28%
Molecular Dynamics Simulation
77%
Molecular Flow
28%
Molecular Transport
28%
Nanotubes
36%
Navier Slip Condition
55%
Poiseuille Flow
38%
Polymer Brushes
48%
Polymer Melt
79%
Relaxation Time
28%
Rotational Dynamics
28%
Rotational Friction
28%
Shear Viscosity
28%
Sliding Motion
24%
Slip Length
96%
Slippage
48%
Soft Surface
28%
Surface Computer
28%
Surface Flow
26%
Temperature Effect
36%
Thermal Conductivity
28%
Translational Dynamics
28%
Translational Friction
28%
Two-layer Model
24%
Water Molecule
28%
Engineering
Analytical Model
24%
Angular Velocity ω
14%
Autocorrelation Function
21%
Body Force
28%
Boundary Condition
100%
Boundary Layer
14%
Bulk Liquid
14%
Carbon Nanotube
63%
Circuit Diagrams
36%
Coefficient of Friction
28%
Constant Value
14%
Contact Area
14%
Contact Line
28%
Couette Flow
57%
Diffusive
28%
Double-Walled Nanotube
24%
Droplet Size
28%
Fluid Viscosity
28%
Friction Dynamic
33%
Friction Force
43%
Gaussians
14%
Glass Transition Temperature (Tg)
14%
Glassy State
28%
Good Agreement
9%
Interlayer
14%
Layer Model
36%
Liquid Polymer
14%
Local Structure
14%
Low-Temperature
14%
Mass Velocity
19%
Model System
28%
Molecular Orientation
14%
Moment Method
20%
Nanotube
38%
Periodic Boundary
13%
Poiseuille Flow
57%
Relaxation Time
28%
Rotational
28%
Schematic Diagram
36%
Shear Viscosity
28%
Simulation Result
9%
Sliding Motion
28%
Slip Condition
72%
Slippage
57%
Structure Surface
14%
Surface Layers
21%
Temperature Dependence
36%
Theoretical Method
11%
Thermal Conductivity
28%
Triple Point
13%