Experimental data on dynamic interactions between individual nanoparticles and membrane processes at nanoscale, essential for biomedical applications of nanoparticles, remain scarce due to limitations of imaging techniques. We were able to follow single 200 nm carboxyl-modified particles interacting with identified membrane structures at the rate of 15 s/frame using a scanning ion conductance microscope modified for simultaneous high-speed topographical and fluorescence imaging. The imaging approach demonstrated here opens a new window into the complexity of nanoparticle-cell interactions. © 2014 American Chemical Society
The effect of nanoparticle charge and conjugation to the cell penetrating peptide Tat on the uptake ...
Interaction of functional nanoparticles with cells and model biomembranes has been widely studied to...
Understanding the behavior of nanomaterials such as nanoparticles into the biological environment is...
Experimental data on dynamic interactions between individual nanoparticles and membrane processes at...
Most biological experiments are performed on an ensemble of cells under the assumption that all cell...
<div><p>Understanding of nanoparticle-bio-interactions within living cells requires knowledge about ...
Nanoparticles-both natural and engineered-are ubiquitous in their interactions with cells and especi...
Engineered nanomaterials are known to enter human cells, often via active endocytosis. Mechanistic d...
Imaging live cells in their native environment is crucial for the understanding of complex biologica...
Scanning probe microscopy (SPM) techniques represent one of the most promising ap-proaches to probe ...
The low toxicity, high surface area, and ease of functionalisation of carbon nanohorns (CNH) makes t...
High-resolution live-cell imaging is necessary to study complex biological phenomena. Modern fluores...
AbstractWe have developed a high-resolution scanning surface confocal microscopy technique capable o...
Scanning Ion Conductance Microscopy (SICM) is an emerging nanotechnology tool to investigate the mor...
Nanoscale resolution scanning ion conductance microscopy (SICM) is now at the forefront of imaging t...
The effect of nanoparticle charge and conjugation to the cell penetrating peptide Tat on the uptake ...
Interaction of functional nanoparticles with cells and model biomembranes has been widely studied to...
Understanding the behavior of nanomaterials such as nanoparticles into the biological environment is...
Experimental data on dynamic interactions between individual nanoparticles and membrane processes at...
Most biological experiments are performed on an ensemble of cells under the assumption that all cell...
<div><p>Understanding of nanoparticle-bio-interactions within living cells requires knowledge about ...
Nanoparticles-both natural and engineered-are ubiquitous in their interactions with cells and especi...
Engineered nanomaterials are known to enter human cells, often via active endocytosis. Mechanistic d...
Imaging live cells in their native environment is crucial for the understanding of complex biologica...
Scanning probe microscopy (SPM) techniques represent one of the most promising ap-proaches to probe ...
The low toxicity, high surface area, and ease of functionalisation of carbon nanohorns (CNH) makes t...
High-resolution live-cell imaging is necessary to study complex biological phenomena. Modern fluores...
AbstractWe have developed a high-resolution scanning surface confocal microscopy technique capable o...
Scanning Ion Conductance Microscopy (SICM) is an emerging nanotechnology tool to investigate the mor...
Nanoscale resolution scanning ion conductance microscopy (SICM) is now at the forefront of imaging t...
The effect of nanoparticle charge and conjugation to the cell penetrating peptide Tat on the uptake ...
Interaction of functional nanoparticles with cells and model biomembranes has been widely studied to...
Understanding the behavior of nanomaterials such as nanoparticles into the biological environment is...