AbstractAtomic force microscopy has been used to investigate the binding between a double-stranded DNA and bilayers of cationic lipids and zwitterionic lipids in low ionic-strength solutions. The binding of a DNA molecule to freshly cleaved mica surface in solution has also been measured. The binding of DNA molecules to cationic lipid bilayers has a minimal strength of ∼45pN. On zwitterionic lipid bilayers and mica surface, the minimal binding strength is approximately twice that value. The binding also has a dynamic nature, with only a certain percentage of recorded force curves containing the binding characteristics. Divalent Mg2+ ions enhance the binding by increasing that percentage without any effect on the binding strength. We have al...
Lipid-anchored DNA can attach functional cargo to bilayer membranes in DNA nanotechnology, synthetic...
The simplified artificial environments in which highly complex biological systems are studied do not...
AbstractElectrical double layer (EDL) forces develop between charged surfaces immersed in an electro...
AbstractThe adsorption of DNA molecules onto a flat mica surface is a necessary step to perform atom...
The interaction of cationic surfactants with single dsDNA molecules has been studied using forcemeas...
We present experimental results on the interaction of DNA macromolecules with cationic lipid membran...
ABSTRACT Changes in the elastic properties of single deoxyribonucleic acid (DNA) molecules in the pr...
Motivated by recent experimental observations of a rapid spontaneous DNA coil-globule transition on ...
Motivated by recent experimental observations of a rapid spontaneous DNA coil-globule transition on ...
In this work, we have measured, by means of optical tweezers, forces acting on depletion-induced DNA...
Lipid-anchored DNA can attach functional cargo to bilayer membranes in DNA nanotechnology, synthetic...
Lipid-anchored DNA can attach functional cargo to bilayer membranes in DNA nanotechnology, synthetic...
Lipid-anchored DNA can attach functional cargo to bilayer membranes in DNA nanotechnology, synthetic...
Lipid-anchored DNA can attach functional cargo to bilayer membranes in DNA nanotechnology, synthetic...
Lipid-anchored DNA can attach functional cargo to bilayer membranes in DNA nanotechnology, synthetic...
Lipid-anchored DNA can attach functional cargo to bilayer membranes in DNA nanotechnology, synthetic...
The simplified artificial environments in which highly complex biological systems are studied do not...
AbstractElectrical double layer (EDL) forces develop between charged surfaces immersed in an electro...
AbstractThe adsorption of DNA molecules onto a flat mica surface is a necessary step to perform atom...
The interaction of cationic surfactants with single dsDNA molecules has been studied using forcemeas...
We present experimental results on the interaction of DNA macromolecules with cationic lipid membran...
ABSTRACT Changes in the elastic properties of single deoxyribonucleic acid (DNA) molecules in the pr...
Motivated by recent experimental observations of a rapid spontaneous DNA coil-globule transition on ...
Motivated by recent experimental observations of a rapid spontaneous DNA coil-globule transition on ...
In this work, we have measured, by means of optical tweezers, forces acting on depletion-induced DNA...
Lipid-anchored DNA can attach functional cargo to bilayer membranes in DNA nanotechnology, synthetic...
Lipid-anchored DNA can attach functional cargo to bilayer membranes in DNA nanotechnology, synthetic...
Lipid-anchored DNA can attach functional cargo to bilayer membranes in DNA nanotechnology, synthetic...
Lipid-anchored DNA can attach functional cargo to bilayer membranes in DNA nanotechnology, synthetic...
Lipid-anchored DNA can attach functional cargo to bilayer membranes in DNA nanotechnology, synthetic...
Lipid-anchored DNA can attach functional cargo to bilayer membranes in DNA nanotechnology, synthetic...
The simplified artificial environments in which highly complex biological systems are studied do not...
AbstractElectrical double layer (EDL) forces develop between charged surfaces immersed in an electro...