Dissipative particle dynamics simulation of flow generated by two rotating concentric cylinders: Boundary conditions

Keyphrases

• Dissipative Particle Dynamics 100%
• Velocity Distribution 100%
• Concentric Cylinders 100%
• No-slip Boundary Condition 100%
• Forgoing 66%
• Bounce Back 66%
• Back Reflection 66%
• Kinematic Viscosity 66%
• Steady State 33%
• Numerical Results 33%
• Analytical Solution 33%
• Temperature Distribution 33%
• Periodic Boundary Conditions 33%
• Possible Sources 33%
• Velocity Profile 33%
• Dimensional Analysis 33%
• Friction Coefficient 33%
• Fluid Domain 33%
• Benchmark System 33%
• Density Distribution 33%
• Angular Velocity 33%
• Bounded Domain 33%
• Couette Flow 33%
• Two-cylinder 33%
• Small Fluctuation 33%
• Dynamic Friction Coefficient 33%
• Poiseuille Flow 33%
• Spurious Effects 33%
• Induced Flow Field 33%
• Parallel Plate Flow 33%
• Unsteady Solutions 33%
• Universal Correlation 33%
• Linear Velocity 33%
• Specular Reflection 33%
• Rigid Body Rotation 33%
• Large Deviations 33%
• Infinitely Long Cylinder 33%

Engineering

• Boundary Condition 100%
• No-Slip Boundary Condition 100%
• Dissipative particle dynamics 100%
• Coefficient of Friction 66%
• Kinematic Viscosity 66%
• Dynamic Method 33%
• Flow Distribution 33%
• Temperature Distribution 33%
• Parallel Plate 33%
• Rigid Structure 33%
• Density Distribution 33%
• Velocity Profile 33%
• Periodic Boundary 33%
• Dimensional Analysis 33%
• Fluid Domain 33%
• Rotating Cylinder 33%
• Angular Velocity ω 33%
• Couette Flow 33%
• Linear Velocity 33%
• Specular Reflection 33%
• Downstream Location 33%
• Body Rotation 33%
• Poiseuille Flow 33%

Mathematics

• Velocity Distribution 100%
• Boundary Condition 100%
• Slip Boundary Condition 75%
• Friction Coefficient 50%
• Flow Field 25%
• Poiseuille Flow 25%
• Time Evolution 25%
• Temperature Distribution 25%
• Angular Velocity 25%
• Dimensional Analysis 25%
• Parallel Plate 25%
• Rigid Body 25%
• Bounded Domain 25%