This review is dedicated to electric field effects on giant unilamellar vesicles, a cell-size membrane system. We summarize various types of behavior observed when vesicles are subjected either to weak AC fields at various frequency, or to strong DC pulses. Different processes such as electro-deformation,-poration and-fusion of giant vesicles are considered. We describe some recent developments, which allowed us to detect the dynamics of the vesicle response with a resolution below milliseconds for all of these processes. Novel aspects on electric field effects on vesicles in the gel phase are introduced. 1
AbstractWhen subjected to alternating electric fields in the frequency range 102–108 Hz, giant lipid...
AbstractIn this article, we report for the first time unusual shape changes of vesicles subjected to...
AbstractElectric pulses across intact vesicles and cells can lead to transient increase in permeabil...
<div><p>The influence of alternating electric field (AC) in the structure and dynamics of giant unil...
We present experimental results regarding the effects of electric pulses on giant unilamellar vesicl...
The present review focuses on the effects of pulsed electric fields on lipid vesicles ranging from g...
The present review focuses on the effects of pulsed electric fields on lipid vesicles ranging from g...
AbstractWe investigate the coupling between the mechanics of fluid membranes and transmembrane elect...
The application of electric pulses to cells or vesicles induces complex responses. When electric fie...
AbstractWe develop an analytical theory to explain the experimentally observed morphological transit...
AbstractFast digital imaging was used to study the deformation and poration of giant unilamellar ves...
We study the role of a biomimetic actin network during the application of electric pulses that induc...
The electrodeformation of giant vesicles is studied as a function of their radii and the frequency o...
AbstractIn this article, we report for the first time unusual shape changes of vesicles subjected to...
We study the role of a biomimetic actin network during the application of electric pulses that induc...
AbstractWhen subjected to alternating electric fields in the frequency range 102–108 Hz, giant lipid...
AbstractIn this article, we report for the first time unusual shape changes of vesicles subjected to...
AbstractElectric pulses across intact vesicles and cells can lead to transient increase in permeabil...
<div><p>The influence of alternating electric field (AC) in the structure and dynamics of giant unil...
We present experimental results regarding the effects of electric pulses on giant unilamellar vesicl...
The present review focuses on the effects of pulsed electric fields on lipid vesicles ranging from g...
The present review focuses on the effects of pulsed electric fields on lipid vesicles ranging from g...
AbstractWe investigate the coupling between the mechanics of fluid membranes and transmembrane elect...
The application of electric pulses to cells or vesicles induces complex responses. When electric fie...
AbstractWe develop an analytical theory to explain the experimentally observed morphological transit...
AbstractFast digital imaging was used to study the deformation and poration of giant unilamellar ves...
We study the role of a biomimetic actin network during the application of electric pulses that induc...
The electrodeformation of giant vesicles is studied as a function of their radii and the frequency o...
AbstractIn this article, we report for the first time unusual shape changes of vesicles subjected to...
We study the role of a biomimetic actin network during the application of electric pulses that induc...
AbstractWhen subjected to alternating electric fields in the frequency range 102–108 Hz, giant lipid...
AbstractIn this article, we report for the first time unusual shape changes of vesicles subjected to...
AbstractElectric pulses across intact vesicles and cells can lead to transient increase in permeabil...