Force-distance (FD) curve-based atomic force microscopy is a valuable tool to simultaneously image the structure and map the biophysical properties of biological samples at the nanoscale. Traditionally, FD-based atomic force microscopy has been severely limited by its poor temporal and lateral resolutions. Here we report the use of advanced FD-based technology combined with biochemically sensitive tips to image filamentous bacteriophages extruding from living bacteria at unprecedented speed and resolution. Directly correlated multiparametric images of the structure, adhesion and elasticity of infected bacteria demonstrate that the sites of assembly and extrusion localize at the bacterial septum in the form of soft nanodomains surrounded by ...
The nanomechanical properties of living cells, such as their surface elastic response and adhesion, ...
The nanomechanical properties of living cells, such as their surface elastic response and adhesion, ...
We report a novel approach to probe the interior of single bacterial cells at nanometre resolution b...
There is a need in biochemical research for new tools that can image and manipulate biomolecular and...
The determination of the characteristics of micro-organisms in clinical specimens is essential for t...
The nanoscale exploration of microbes using atomic force microscopy (AFM) is an exciting research fi...
The determination of the characteristics of micro-organisms in clinical specimens is essential for t...
Atomic force microscopy (AFM) is a class of high-resolution scanning probe microscopy (SPM) for non-...
Probiotic bacteria have a strong potential in biomedicine owing to their ability to induce various b...
Currently, there is a growing need for methods that can quantify and map the molecular interactions ...
Understanding the relationships between viral material properties (stiffness, strength, charge densi...
Atomic force microscopy (AFM) has recently opened a variety of novel possibilities for imaging and m...
The bacterial cell envelope is essential for viability, the environmental gatekeeper and first line ...
Measurements of local material properties of complex biological systems (e.g. live cells and viruses...
<div><p>Structural Biology (SB) techniques are particularly successful in solving virus structures. ...
The nanomechanical properties of living cells, such as their surface elastic response and adhesion, ...
The nanomechanical properties of living cells, such as their surface elastic response and adhesion, ...
We report a novel approach to probe the interior of single bacterial cells at nanometre resolution b...
There is a need in biochemical research for new tools that can image and manipulate biomolecular and...
The determination of the characteristics of micro-organisms in clinical specimens is essential for t...
The nanoscale exploration of microbes using atomic force microscopy (AFM) is an exciting research fi...
The determination of the characteristics of micro-organisms in clinical specimens is essential for t...
Atomic force microscopy (AFM) is a class of high-resolution scanning probe microscopy (SPM) for non-...
Probiotic bacteria have a strong potential in biomedicine owing to their ability to induce various b...
Currently, there is a growing need for methods that can quantify and map the molecular interactions ...
Understanding the relationships between viral material properties (stiffness, strength, charge densi...
Atomic force microscopy (AFM) has recently opened a variety of novel possibilities for imaging and m...
The bacterial cell envelope is essential for viability, the environmental gatekeeper and first line ...
Measurements of local material properties of complex biological systems (e.g. live cells and viruses...
<div><p>Structural Biology (SB) techniques are particularly successful in solving virus structures. ...
The nanomechanical properties of living cells, such as their surface elastic response and adhesion, ...
The nanomechanical properties of living cells, such as their surface elastic response and adhesion, ...
We report a novel approach to probe the interior of single bacterial cells at nanometre resolution b...