Lattice Boltzmann simulation of asymmetric flow in nematic liquid crystals with finite anchoring

Keyphrases

• Hybrid Cells 100%
• Nematic Liquid Crystal 100%
• Volumetric Flow Rate 100%
• Lattice Boltzmann Model 100%
• Director Field 100%
• Asymmetric Flow 100%
• Flow Pattern 50%
• Flow Characteristics 50%
• Liquid Crystal 50%
• Pressure Gradient 50%
• Oscillation 50%
• Microfluidic Device 50%
• Topological Transition 50%
• Low-to-moderate 50%
• High Shear Rate 50%
• Symmetry Breaking 50%
• Time-dependent Flow 50%
• Hydrodynamic Effect 50%
• Flow Direction 50%
• Shear Rate 50%
• Lattice Boltzmann Method 50%
• Poiseuille Flow 50%
• Orientational Order 50%
• Liquid Crystal Display 50%
• Nematic Phase 50%
• Couette Flow 50%
• 3D Lattice 50%
• Symmetric Flow 50%
• Oscillating Pressure 50%

Engineering

• Boltzmann Equation 100%
• Asymmetric Flow 100%
• Flow Rate 66%
• Hydrodynamics 66%
• Flow Characteristics 33%
• Shear Rate 33%
• Flow Direction 33%
• Lattice-Boltzmann Method 33%
• Oscillatory 33%
• Poiseuille Flow 33%
• Liquid Crystal Display 33%
• Couette Flow 33%
• High Shear Rate 33%
• Symmetric Flow 33%
• Pressure Gradient 33%

Material Science

• Nematic Liquid Crystal 100%
• Hydrodynamics 100%
• Liquid Crystal Display 50%
• Lattice-Boltzmann Method 50%