We describe a facile method to simultaneously measure the bending rigidity and capacitance of biomimetic lipid bilayers. Our approach utilizes the ellipsoidal deformation of quasi-spherical giant unilamellar vesicles induced by a uniform AC electric field. Vesicle shape depends on the electric field frequency and amplitude. Membrane bending rigidity can be obtained from the variation of the vesicle elongation on either field amplitude at fixed frequency or frequency at fixed field amplitude. Membrane capacitance is determined from the frequency at which the vesicle shape changes from prolate to oblate ellipsoid as the frequency is increased at a given field amplitude
Kakorin S, Brinkmann U, Neumann E. Cholesterol reduces membrane electroporation and electric deforma...
AbstractWe develop an analytical theory to explain the experimentally observed morphological transit...
AbstractConsidering the effects of osmotic pressure, elastic bending, Maxwell pressure, surface tens...
We describe a method to determine membrane bending rigidity from capacitance measurements on large a...
AbstractWe investigate the coupling between the mechanics of fluid membranes and transmembrane elect...
The deformation of a lipid vesicle in an external electric field is analysed assuming constant membr...
The electrodeformation of giant vesicles is studied as a function of their radii and the frequency o...
When exposed to a DC electric pulse, giant vesicles made of bilayer membranes adopt peculiar drum-li...
When exposed to a DC electric pulse, giant vesicles made of bilayer membranes adopt peculiar drum-li...
AbstractConsidering the effects of osmotic pressure, elastic bending, Maxwell pressure, surface tens...
When exposed to a DC electric pulse, giant vesicles made of bilayer membranes adopt peculiar drum-li...
When exposed to a DC electric pulse, giant vesicles made of bilayer membranes adopt peculiar drum-li...
Kakorin S, Neumann E. Kinetics of the electroporative deformation of lipid vesicles and biological c...
Neumann E, Kakorin S, Tönsing K. Membrane electroporation and electromechanical deformation of vesic...
When exposed to a DC electric pulse, giant vesicles made of bilayer membranes adopt peculiar drum-li...
Kakorin S, Brinkmann U, Neumann E. Cholesterol reduces membrane electroporation and electric deforma...
AbstractWe develop an analytical theory to explain the experimentally observed morphological transit...
AbstractConsidering the effects of osmotic pressure, elastic bending, Maxwell pressure, surface tens...
We describe a method to determine membrane bending rigidity from capacitance measurements on large a...
AbstractWe investigate the coupling between the mechanics of fluid membranes and transmembrane elect...
The deformation of a lipid vesicle in an external electric field is analysed assuming constant membr...
The electrodeformation of giant vesicles is studied as a function of their radii and the frequency o...
When exposed to a DC electric pulse, giant vesicles made of bilayer membranes adopt peculiar drum-li...
When exposed to a DC electric pulse, giant vesicles made of bilayer membranes adopt peculiar drum-li...
AbstractConsidering the effects of osmotic pressure, elastic bending, Maxwell pressure, surface tens...
When exposed to a DC electric pulse, giant vesicles made of bilayer membranes adopt peculiar drum-li...
When exposed to a DC electric pulse, giant vesicles made of bilayer membranes adopt peculiar drum-li...
Kakorin S, Neumann E. Kinetics of the electroporative deformation of lipid vesicles and biological c...
Neumann E, Kakorin S, Tönsing K. Membrane electroporation and electromechanical deformation of vesic...
When exposed to a DC electric pulse, giant vesicles made of bilayer membranes adopt peculiar drum-li...
Kakorin S, Brinkmann U, Neumann E. Cholesterol reduces membrane electroporation and electric deforma...
AbstractWe develop an analytical theory to explain the experimentally observed morphological transit...
AbstractConsidering the effects of osmotic pressure, elastic bending, Maxwell pressure, surface tens...