Assuming that the shape of red blood cells is controlled by the curvature elasticity of the surrounding membrane, we fit theoretical shapes to the contours Evans and co-workers determined by interference microscopy. Very good agreement is obtained for disc shapes. The fit is not so good for less common shapes, which may result from Evans' parametric representation and from the interference of shear elasticity
Red blood cells (RBCs) are present in almost all vertebrates and their main function is to transport...
The biconcave disk shape of the mammalian red blood cell (RBC) is unique to the RBC and is vital for...
AbstractThe deformation of an initially spherical vesicle of radius a with a permeable membrane unde...
The two main proposals found in the literature for the stress-free shape of the red cell membrane ar...
A theory of mechanical stability is formulated based on the electrostatic energy density contained w...
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...
A rigorous mathematical solution of the sphering of a red blood cell is obtained under the assumptio...
Abstract We present mathematical simulations of shapes of red blood cells (RBCs) and their cytoskele...
The several widely different values of the elastic modulus of the human red blood cell membrane whic...
The role of the membrane skeleton in determining the shape of the human red cell was probed by weake...
Two mechanisms are operative when the resting shape of human red cells is changed into an echinocyte...
A model is postulated which attributes the distinctive biconcave shape of the human erythrocyte to a...
AbstractThe aim of this study is to calculate the membrane elastic energy for the different shapes o...
The mechanics and elasticity of red blood cells (RBCs) determine the capability to deform of these c...
Red blood cells (RBCs) are present in almost all vertebrates and their main function is to transport...
The biconcave disk shape of the mammalian red blood cell (RBC) is unique to the RBC and is vital for...
AbstractThe deformation of an initially spherical vesicle of radius a with a permeable membrane unde...
The two main proposals found in the literature for the stress-free shape of the red cell membrane ar...
A theory of mechanical stability is formulated based on the electrostatic energy density contained w...
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...
A rigorous mathematical solution of the sphering of a red blood cell is obtained under the assumptio...
Abstract We present mathematical simulations of shapes of red blood cells (RBCs) and their cytoskele...
The several widely different values of the elastic modulus of the human red blood cell membrane whic...
The role of the membrane skeleton in determining the shape of the human red cell was probed by weake...
Two mechanisms are operative when the resting shape of human red cells is changed into an echinocyte...
A model is postulated which attributes the distinctive biconcave shape of the human erythrocyte to a...
AbstractThe aim of this study is to calculate the membrane elastic energy for the different shapes o...
The mechanics and elasticity of red blood cells (RBCs) determine the capability to deform of these c...
Red blood cells (RBCs) are present in almost all vertebrates and their main function is to transport...
The biconcave disk shape of the mammalian red blood cell (RBC) is unique to the RBC and is vital for...
AbstractThe deformation of an initially spherical vesicle of radius a with a permeable membrane unde...