Titanium oxide is a biocompatible material that supports vesicle adhesion. Depending on experimental parameters, adsorbed vesicles remain intact or rupture spontaneously. Vesicle rupture has been attributed to electrostatic attraction between vesicles and titanium oxide, although the relative contribution of various interfacial forces remains to be clarified. Herein, we investigated the influence of vesicle surface charge on vesicle adsorption onto titanium oxide and observed that electrostatic attraction is insufficient for vesicle rupture. Following this line of evidence, a continuum model based on the DLVO forces and a non-DLVO hydration force was applied to investigate the role of different interfacial forces in modulating the lipid–sub...
AbstractUsing a surface force balance, we measured normal and shear interactions as a function of su...
We studied the interactions of silica and titanium dioxide nanoparticles with phospholipid membranes...
We studied the interactions of silica and titanium dioxide nanoparticles with phospholipid membranes...
Titanium oxide is a biocompatible material that supports vesicle adhesion. Depending on experimental...
Titanium oxide is a biocompatible material that supports vesicle adhesion. Depending on experimental...
The pathway of vesicle adsorption onto a solid support depends on the material composition of the un...
The pathway of vesicle adsorption onto a solid support depends on the material composition of the un...
The adhesion of lipid vesicles to solid supports represents an important step in the molecular self-...
The interfacial science of phospholipid assemblies on solid supports is principally governed by a se...
The fate of adsorbed lipid vesicles on solid supports depends on numerous experimental parameters an...
The fate of adsorbed lipid vesicles on solid supports depends on numerous experimental parameters an...
AbstractUsing a surface force balance, we measured normal and shear interactions as a function of su...
Atomic force microscopy (AFM) studies under aqueous buffer probed the role of chemical affinity betw...
In this review paper, we theoretically explain the origin of electrostatic interactions between lipi...
In this review paper, we theoretically explain the origin of electrostatic interactions between lipi...
AbstractUsing a surface force balance, we measured normal and shear interactions as a function of su...
We studied the interactions of silica and titanium dioxide nanoparticles with phospholipid membranes...
We studied the interactions of silica and titanium dioxide nanoparticles with phospholipid membranes...
Titanium oxide is a biocompatible material that supports vesicle adhesion. Depending on experimental...
Titanium oxide is a biocompatible material that supports vesicle adhesion. Depending on experimental...
The pathway of vesicle adsorption onto a solid support depends on the material composition of the un...
The pathway of vesicle adsorption onto a solid support depends on the material composition of the un...
The adhesion of lipid vesicles to solid supports represents an important step in the molecular self-...
The interfacial science of phospholipid assemblies on solid supports is principally governed by a se...
The fate of adsorbed lipid vesicles on solid supports depends on numerous experimental parameters an...
The fate of adsorbed lipid vesicles on solid supports depends on numerous experimental parameters an...
AbstractUsing a surface force balance, we measured normal and shear interactions as a function of su...
Atomic force microscopy (AFM) studies under aqueous buffer probed the role of chemical affinity betw...
In this review paper, we theoretically explain the origin of electrostatic interactions between lipi...
In this review paper, we theoretically explain the origin of electrostatic interactions between lipi...
AbstractUsing a surface force balance, we measured normal and shear interactions as a function of su...
We studied the interactions of silica and titanium dioxide nanoparticles with phospholipid membranes...
We studied the interactions of silica and titanium dioxide nanoparticles with phospholipid membranes...