Achieving Stable Patterns in Multicomponent Polymer Thin Films Using Marangoni and van der Waals Forces

Keyphrases

• Polymer Thin Films 100%
• Multicomponent Polymers 100%
• Polymer Film 100%
• Stable Pattern 100%
• Van Der Waals Force 100%
• Surface Tension Gradient 100%
• Marangoni 100%
• Air-liquid Interface 50%
• Capillary 50%
• Model Prediction 50%
• Lower Molar 50%
• Molar Mass 50%
• Topographic Factors 50%
• State-led 50%
• Liquid State 50%
• Patterned Surface 50%
• Lubrication Theory 50%
• Species Concentration 50%
• Disjoining Pressure 50%
• Film Patterning 50%
• Solid Polymer Film 50%
• Surface Active Species 50%
• Flow-based 50%
• Coupled Nonlinear Partial Differential Equations 50%

Engineering

• Surface Tension Gradient 100%
• Marangoni 100%
• Thin Films 100%
• Parametric Study 50%
• Driven Flow 50%
• Model Prediction 50%
• Nonlinear Partial Differential Equation 50%
• Active Surface 50%
• Air Interface 50%
• Molar Mass 50%
• Disjoining Pressure 50%

Material Science

• Film 100%
• Polymer Films 100%
• Thin Films 100%
• Surface Tension 66%
• Lubrication 33%
• Surface (Surface Science) 33%