It is now well established that external stresses alter the behaviour of cells, where such alterations can be as profound as changes in gene expression. A type of stresses of particular interest are those due to alternating-current (AC) electric fields. The effect of AC fields on cells is still not well understood, in particular it is not clear how these fields affect the cell nucleus and other organelles. Here, we propose that one possible mechanism is through the deformation of the membranes. In order to investigate the effect of AC fields on the morphological changes of the cell organelles, we modelled the cell as two concentric bilayer membranes. This model allows us to obtain the deformations induced by the AC field by balancing the el...
Analysis of the angular distribution of extensil mechanical stress, sigma e, generated in cytoplasmi...
AbstractConsidering the effects of osmotic pressure, elastic bending, Maxwell pressure, surface tens...
AbstractWhen subjected to alternating electric fields in the frequency range 102–108 Hz, giant lipid...
Biological cells in general, and erythrocytes in particular, have been experimentally observed to un...
Biological cells in general, and erythrocytes in particular, have been experimentally observed to un...
A number of experimental studies have established the critical role of electric field stimulation on...
AbstractConsidering the effects of osmotic pressure, elastic bending, Maxwell pressure, surface tens...
AbstractWe develop an analytical theory to explain the experimentally observed morphological transit...
Analysis of the angular distribution of extensil mechanical stress, sigma e, generated in cytoplasmi...
AbstractWe investigate the coupling between the mechanics of fluid membranes and transmembrane elect...
Biological cells stressed by external electric fields undergo mechanical deformation and remodeling ...
Biological cells stressed by external electric fields undergo mechanical deformation and remodeling ...
Recently proposed analysis of the extensil stress developed in a cellular membrane subjected to an a...
An electromechanical analysis based on thin-shell theory is presented to analyze cell shape changes ...
An electromechanical analysis based on thin-shell theory is presented to analyze cell shape changes ...
Analysis of the angular distribution of extensil mechanical stress, sigma e, generated in cytoplasmi...
AbstractConsidering the effects of osmotic pressure, elastic bending, Maxwell pressure, surface tens...
AbstractWhen subjected to alternating electric fields in the frequency range 102–108 Hz, giant lipid...
Biological cells in general, and erythrocytes in particular, have been experimentally observed to un...
Biological cells in general, and erythrocytes in particular, have been experimentally observed to un...
A number of experimental studies have established the critical role of electric field stimulation on...
AbstractConsidering the effects of osmotic pressure, elastic bending, Maxwell pressure, surface tens...
AbstractWe develop an analytical theory to explain the experimentally observed morphological transit...
Analysis of the angular distribution of extensil mechanical stress, sigma e, generated in cytoplasmi...
AbstractWe investigate the coupling between the mechanics of fluid membranes and transmembrane elect...
Biological cells stressed by external electric fields undergo mechanical deformation and remodeling ...
Biological cells stressed by external electric fields undergo mechanical deformation and remodeling ...
Recently proposed analysis of the extensil stress developed in a cellular membrane subjected to an a...
An electromechanical analysis based on thin-shell theory is presented to analyze cell shape changes ...
An electromechanical analysis based on thin-shell theory is presented to analyze cell shape changes ...
Analysis of the angular distribution of extensil mechanical stress, sigma e, generated in cytoplasmi...
AbstractConsidering the effects of osmotic pressure, elastic bending, Maxwell pressure, surface tens...
AbstractWhen subjected to alternating electric fields in the frequency range 102–108 Hz, giant lipid...