AbstractShapes of red blood cells at low pH were studied theoretically. It is assumed that the equilibrium shape of the red blood cell corresponds to the minimum of its membrane elastic energy which consists of the bending energy and relative stretching energy of the bilayer, the stretching energy of the skeleton and the interaction energy between the skeleton and the bilayer. It is shown that the aggregation of the skeleton at low pH can cause the red blood cell shape transformation from the stomatocytic shape to the cell shape composed of a spherical parent cell having the bilayer completely underlaid with the skeleton and spherical daughter vesicles without the skeleton
AbstractWe study the shapes of human red blood cells using continuum mechanics. In particular, we mo...
The molecular basis for the elasticity of the human erythrocyte membrane was explored. Skeletons wer...
Assuming that the shape of red blood cells is controlled by the curvature elasticity of the surround...
AbstractShapes of red blood cells at low pH were studied theoretically. It is assumed that the equil...
Shapes of red blood cells at low pH were studied theoretically. It is assumed that the equilibrium s...
A possible physical interpretation of the partial detachment of the membrane skeleton in the budding...
The role of the membrane skeleton in determining the shape of the human red cell was probed by weake...
AbstractThe molecular basis of cell shape regulation in acidic pH was investigated in human erythroc...
Altered external pH transforms human erythrocytes from discocytes to stomatocytes (low pH) or echino...
Altered external pH transforms human erythrocytes from discocytes to stomatocytes (low pH) or echino...
Altered external pH transforms human erythrocytes from discocytes to stomatocytes (low pH) or echino...
A theory of mechanical stability is formulated based on the electrostatic energy density contained w...
AbstractMetabolic depletion of hereditary ovalocytes leads, similar to normal red cells, to decrease...
AbstractGlycocalyx, the characteristic first line of interaction between membrane and environment, c...
Model calculations were performed to explore quantitative aspects of the discocyte-echinocyte shape ...
AbstractWe study the shapes of human red blood cells using continuum mechanics. In particular, we mo...
The molecular basis for the elasticity of the human erythrocyte membrane was explored. Skeletons wer...
Assuming that the shape of red blood cells is controlled by the curvature elasticity of the surround...
AbstractShapes of red blood cells at low pH were studied theoretically. It is assumed that the equil...
Shapes of red blood cells at low pH were studied theoretically. It is assumed that the equilibrium s...
A possible physical interpretation of the partial detachment of the membrane skeleton in the budding...
The role of the membrane skeleton in determining the shape of the human red cell was probed by weake...
AbstractThe molecular basis of cell shape regulation in acidic pH was investigated in human erythroc...
Altered external pH transforms human erythrocytes from discocytes to stomatocytes (low pH) or echino...
Altered external pH transforms human erythrocytes from discocytes to stomatocytes (low pH) or echino...
Altered external pH transforms human erythrocytes from discocytes to stomatocytes (low pH) or echino...
A theory of mechanical stability is formulated based on the electrostatic energy density contained w...
AbstractMetabolic depletion of hereditary ovalocytes leads, similar to normal red cells, to decrease...
AbstractGlycocalyx, the characteristic first line of interaction between membrane and environment, c...
Model calculations were performed to explore quantitative aspects of the discocyte-echinocyte shape ...
AbstractWe study the shapes of human red blood cells using continuum mechanics. In particular, we mo...
The molecular basis for the elasticity of the human erythrocyte membrane was explored. Skeletons wer...
Assuming that the shape of red blood cells is controlled by the curvature elasticity of the surround...