Bilayer aggregate microstructure determines viscoelasticity of lung surfactant suspensions

Keyphrases

• Aggregate Microstructure 100%
• Aggregate Shape 25%
• Animal-derived 25%
• Asymmetric Particles 25%
• Bovine Lung 25%
• Calves 25%
• Composition-dependent 25%
• Curosurf® 50%
• Electron Microscopy 25%
• Flocculant 25%
• Hard Spheres 25%
• High Aspect Ratio 25%
• Induced Flow 25%
• Infasurf 50%
• Intratracheal Administration 25%
• Intratracheal Delivery 25%
• Lipid Bilayer 25%
• Lipid Composition 25%
• Lipids 25%
• Liposomes 25%
• Lung 50%
• Lung Lavage 25%
• Lung Surfactant 100%
• Mass Effect 50%
• Neonatal Respiratory Distress Syndrome 25%
• Onion 25%
• Optical Microscopy 25%
• Organic Solvents 25%
• Particle Volume Fraction 75%
• Polyethylene Glycol 25%
• Porcine Lung 25%
• Rate of Spread 25%
• Rehydration 25%
• Rheological Properties 25%
• Rheology 25%
• Small Particles 25%
• Small-angle X-ray Scattering 25%
• Solvent Removal 25%
• Solvent Viscosity 25%
• Steady Shear Viscosity 25%
• Surface Tension Gradient 25%
• Surfactant 100%
• Survanta 50%
• Suspension Viscosity 25%
• Temperature Effect 25%
• Unilamellar Vesicles 25%
• Viscoelasticity 100%
• Viscosity Increase 25%
• Viscosity Variation 25%
• Volume Fraction 25%
• Water Pocket 25%

Pharmacology, Toxicology and Pharmaceutical Science

• Beractant 50%
• Calfactant 50%
• Electron Microscopy 25%
• Hydration 25%
• Liposome 25%
• Macrogol 25%
• Neonatal Respiratory Distress Syndrome 25%
• Onion 25%
• Pig 25%
• Poractant Alfa 50%
• Pulmonary Surfactant 100%
• Sodium Chloride 50%
• Surfactant 100%

Material Science

• Crystalline Material 12%
• Electron Microscopy 12%
• Organic Solvents 12%
• Polyethylene Glycol 12%
• Rheology 12%
• Surface Active Agent 100%
• Surface Tension 12%
• Viscoelasticity 100%
• Volume Fraction 50%