International audienceStudying the influence of macromolecular crowding at high ionic strengths on assemblies of biomolecules is of particular interest because these are standard intracellular conditions. However, up to now, no techniques offer the possibility of studying the effect of molecular crowding at the single molecule scale and at high resolution. We present a method to observe double-strand DNA under macromolecular crowding conditions on a flat mica surface by atomic force microscope. By using high concentrations of monovalent salt ([NaCl] > 100 mM), we promote DNA adsorption onto NiCl2 pretreated muscovite mica. It therefore allows analysis of DNA conformational changes and DNA compaction induced by polyethylene glycol (PEG), a n...
The adsorption of DNA molecules on mica surface and the following desorption of DNA molecules at eth...
A chemical procedure for anchoring DNA molecules to gold surfaces was used to facilitate the imaging...
Large DNA molecules remain difficult to be imaged by atomic force microscopy (AFM) because of the te...
Compaction of DNA in chromatin is a hallmark of the eukaryotic cell and unravelling its structure is...
DNA on mica can be imaged in the atomic force microscope (AFM) in water or in some buffers If the sa...
A simple, controllable and effective sample preparation method was established for atomic force micr...
This paper explores suitable conditions for the imaging of DNA molecules by atomic force microscope ...
AbstractThe adsorption of DNA molecules onto a flat mica surface is a necessary step to perform atom...
The lambda-DNA molecules self-assemble on cysteamine-modified gold (111) surface to form flat-lying ...
AbstractUsing a cationic lipid bilayer, we show that DNA can be reliably adsorbed to the bilayer sur...
In buffers containing selected transition metal salts, DNA binds to mica tightly enough to be direct...
Analyses of individual biomolecules, like DNA, or DNA–protein complexes, via atomic force microscop...
AbstractAtomic force microscopy has been used to investigate the binding between a double-stranded D...
International audienceDNA processing by site-specific proteins on surface remains a challenging issu...
distributed DNA oligomer arrays on Au(111) surfaces were created by one-step co-assembly of mixed mo...
The adsorption of DNA molecules on mica surface and the following desorption of DNA molecules at eth...
A chemical procedure for anchoring DNA molecules to gold surfaces was used to facilitate the imaging...
Large DNA molecules remain difficult to be imaged by atomic force microscopy (AFM) because of the te...
Compaction of DNA in chromatin is a hallmark of the eukaryotic cell and unravelling its structure is...
DNA on mica can be imaged in the atomic force microscope (AFM) in water or in some buffers If the sa...
A simple, controllable and effective sample preparation method was established for atomic force micr...
This paper explores suitable conditions for the imaging of DNA molecules by atomic force microscope ...
AbstractThe adsorption of DNA molecules onto a flat mica surface is a necessary step to perform atom...
The lambda-DNA molecules self-assemble on cysteamine-modified gold (111) surface to form flat-lying ...
AbstractUsing a cationic lipid bilayer, we show that DNA can be reliably adsorbed to the bilayer sur...
In buffers containing selected transition metal salts, DNA binds to mica tightly enough to be direct...
Analyses of individual biomolecules, like DNA, or DNA–protein complexes, via atomic force microscop...
AbstractAtomic force microscopy has been used to investigate the binding between a double-stranded D...
International audienceDNA processing by site-specific proteins on surface remains a challenging issu...
distributed DNA oligomer arrays on Au(111) surfaces were created by one-step co-assembly of mixed mo...
The adsorption of DNA molecules on mica surface and the following desorption of DNA molecules at eth...
A chemical procedure for anchoring DNA molecules to gold surfaces was used to facilitate the imaging...
Large DNA molecules remain difficult to be imaged by atomic force microscopy (AFM) because of the te...