In this manuscript a novel optical assay, based on citrated gold nanoparticles, for estimating the stiffness of nanosized lipid vesicles is presented. The aggregation and clustering of AuNPs on the vesicles is mediated by the rigidity of their membranes, thus generating different plasmon absorbance spectra for different membrane rigidities. Combined with the stiffness obtained by AFM-Force Spectroscopy, this phenomenon is exploited for building up a calibration curve that allows retrieving the stiffness of unknown vesicle samples just from their absorbance spectra, following the interaction with AuNPs
BACKGROUND: The interest in mechanics of synthetic and biological vesicles has been continuously gro...
It has recently been recognized that the mechanical properties of lipid nanoparticles play an import...
Nanovesicles (similar to 100 nm) are ubiquitous in cell biology and an important vector for drug del...
Nanosized lipid vesicles are ubiquitous in living systems (e.g. cellular compartments or extracellul...
A nanoplasmonic ruler method is presented in order to measure the deformation of adsorbed, nm-scale ...
We herein describe an Atomic Force Microscopy (AFM)-based experimental procedure which allows the si...
In the manuscript, Atomic Force Microscopy (AFM) is employed for characterizing the mechanical respo...
An indirect nanoplasmonic sensing platform is reported for investigating the kinetics of attachment ...
This paper describes a method to gauge the stiffness of nanosized liposomes – a nanoscale vesicle – ...
Small multilamellar vesicles may have benefits over unilamellar vesicles for drug delivery, such as ...
Gold nanoparticles provide a template for preparing supported lipid layers with well-defined curvatu...
A synthetic protocol is described for preparing lipid-coated gold nanoparticles (AuNPs) of varying s...
Lipid bilayers form the basis of the membranes that serve as a barrier between a cell and its physio...
Interrogating individual molecules within bio-membranes is key to deepening our understanding of bio...
The mechanical properties of biological nanoparticles play a crucial role in their interaction with ...
BACKGROUND: The interest in mechanics of synthetic and biological vesicles has been continuously gro...
It has recently been recognized that the mechanical properties of lipid nanoparticles play an import...
Nanovesicles (similar to 100 nm) are ubiquitous in cell biology and an important vector for drug del...
Nanosized lipid vesicles are ubiquitous in living systems (e.g. cellular compartments or extracellul...
A nanoplasmonic ruler method is presented in order to measure the deformation of adsorbed, nm-scale ...
We herein describe an Atomic Force Microscopy (AFM)-based experimental procedure which allows the si...
In the manuscript, Atomic Force Microscopy (AFM) is employed for characterizing the mechanical respo...
An indirect nanoplasmonic sensing platform is reported for investigating the kinetics of attachment ...
This paper describes a method to gauge the stiffness of nanosized liposomes – a nanoscale vesicle – ...
Small multilamellar vesicles may have benefits over unilamellar vesicles for drug delivery, such as ...
Gold nanoparticles provide a template for preparing supported lipid layers with well-defined curvatu...
A synthetic protocol is described for preparing lipid-coated gold nanoparticles (AuNPs) of varying s...
Lipid bilayers form the basis of the membranes that serve as a barrier between a cell and its physio...
Interrogating individual molecules within bio-membranes is key to deepening our understanding of bio...
The mechanical properties of biological nanoparticles play a crucial role in their interaction with ...
BACKGROUND: The interest in mechanics of synthetic and biological vesicles has been continuously gro...
It has recently been recognized that the mechanical properties of lipid nanoparticles play an import...
Nanovesicles (similar to 100 nm) are ubiquitous in cell biology and an important vector for drug del...