A model for the electric field-driven flow and deformation of a drop or vesicle in strong electrolyte solutions

Keyphrases

• Additional Boundary Conditions 33%
• Applied Electric Field 33%
• Charge-up 33%
• Debye Layer 100%
• Debye Screening Length 33%
• Diffusion Constant 33%
• Dissolved Salts 33%
• Double Layer 100%
• Double-layer Structure 33%
• Electric Double Layer 33%
• Electric Field Driven 100%
• Electrokinetic Flow 33%
• Electrolyte Solution 100%
• Electrostatic Potential 33%
• Flow Field 33%
• Integral Equations 66%
• Interface Membrane 33%
• Interfacial Boundary Conditions 33%
• Ion Concentration 33%
• Ion Diffusion 33%
• Ion Transport 33%
• Membrane Surface 33%
• Opposite Polarity 33%
• Poisson-Nernst-Planck Equations 33%
• Stokes Equations 33%
• Stokes Flow 33%
• Stress Balance 33%
• Strong Electrolytes 100%
• Surface Interface 33%
• Velocity Field 33%
• Vesicle Membrane 33%

Engineering

• Applied Electric Field 25%
• Applied Field 25%
• Boundary Condition 75%
• Dependent Variable 25%
• Dissolved Salt 25%
• Double Layer 100%
• Driven Flow 100%
• Electric Field 100%
• Electrical Double Layer 25%
• Electrostatic Potential 25%
• Flow Field 25%
• Ion Concentration 25%
• Layer Structure 25%
• Length Scale 25%
• Membrane Surface 25%
• Nernst-Planck Equation 25%
• Outer Face 50%
• Stokes Equation 25%
• Velocity Field 25%