The atomic force microscope (AFM) was used to image native OmpF porin and to detect the electrostatic potential generated by the protein. To this end the OmpF porin trimers from Escherichia coli was reproducibly imaged at a lateral resolution of approximately 0.5 nm and a vertical resolution of approximately 0.1 nm at variable electrolyte concentrations of the buffer solution. At low electrolyte concentrations the charged AFM probe not only contoured structural details of the membrane protein surface but also interacted with local electrostatic potentials. Differences measured between topographs recorded at variable ionic strength allowed mapping of the electrostatic potential of OmpF porin. The potential map acquired by AFM showed qualitat...
Fundamental biological processes such as cell-cell communication, signal transduction, molecular tra...
In this paper is presented an innovative method to map in-vivo and at nanometer scale the electrical...
The behaviour of biological components in cellular membranes is vital to the function of cells howev...
The atomic force microscope (AFM) was used to image native OmpF porin and to detect the electrostati...
This is the published version. Copyright 2002 by Elsevier.The atomic force microscope (AFM) was used...
Elucidating the mechanisms by which proteins translocate small molecules and ions through transmembr...
The electrostatic properties of lipid bilayer membranes play a significant role in many biological p...
In this chapter the methodological bases are provided to achieve subnanometer resolution on two-dime...
Crystalline membranes reconstituted from Escherichia coli OmpF porin and phospholipids were adsorbed...
AbstractThe electrostatic properties of biological membranes can be described by three parameters: t...
Solvent-free planar lipid bilayers were formed in an automatic manner by bursting of giant unilamell...
AbstractThe atomic force microscope (AFM) is sensitive to electric double layer interactions in elec...
Proceedings of the NATO Advanced Research Workshop: Scanning Probe Microscopies and Molecular Mater...
The atomic force microscope acquires topographs of single native membrane proteins at subnanometer r...
Atomic force microscopy (AFM) proved to be able to obtain high‐resolution three‐dimensional images o...
Fundamental biological processes such as cell-cell communication, signal transduction, molecular tra...
In this paper is presented an innovative method to map in-vivo and at nanometer scale the electrical...
The behaviour of biological components in cellular membranes is vital to the function of cells howev...
The atomic force microscope (AFM) was used to image native OmpF porin and to detect the electrostati...
This is the published version. Copyright 2002 by Elsevier.The atomic force microscope (AFM) was used...
Elucidating the mechanisms by which proteins translocate small molecules and ions through transmembr...
The electrostatic properties of lipid bilayer membranes play a significant role in many biological p...
In this chapter the methodological bases are provided to achieve subnanometer resolution on two-dime...
Crystalline membranes reconstituted from Escherichia coli OmpF porin and phospholipids were adsorbed...
AbstractThe electrostatic properties of biological membranes can be described by three parameters: t...
Solvent-free planar lipid bilayers were formed in an automatic manner by bursting of giant unilamell...
AbstractThe atomic force microscope (AFM) is sensitive to electric double layer interactions in elec...
Proceedings of the NATO Advanced Research Workshop: Scanning Probe Microscopies and Molecular Mater...
The atomic force microscope acquires topographs of single native membrane proteins at subnanometer r...
Atomic force microscopy (AFM) proved to be able to obtain high‐resolution three‐dimensional images o...
Fundamental biological processes such as cell-cell communication, signal transduction, molecular tra...
In this paper is presented an innovative method to map in-vivo and at nanometer scale the electrical...
The behaviour of biological components in cellular membranes is vital to the function of cells howev...