<p>Open circles and filled triangles show the measured strain for non-charged and charged vesicles, respectively. Computer simulation results are shows as filled squares and dashed line. The presence of charge in the membrane appears to stiffen the membrane resulting on smaller measured strains.</p
Directly examining subcellular mechanics whilst avoiding excessive strain of a live cell requires th...
The membranes of human red blood cells (RBCs) are a composite of a fluid lipid bilayer and a triangu...
Red cells which adhere to a surface in a parallel plate flow channel are stretched when acted on by ...
The shape as well as tension and pressure inside an uncharged vesicle are understood to be determine...
AbstractBiomimetic membranes are fluid and can undergo two different elastic deformations, bending a...
The shape as well as tension and pressure inside an uncharged vesicle are understood to be determine...
The several widely different values of the elastic modulus of the human red blood cell membrane whic...
Due to the complexity of the in vivo environment, in vitro cell studies provide valuable insights in...
We highlight mechanical stretching and bending of membranes and the importance of membrane deformati...
<p>The membrane’s top face sustains a stress <i>σ</i><sub>b</sub> arising from bond deformation. The...
The cell membrane is an essential component of living cells and the dynamics of the membrane will pr...
AbstractBone adapts to its environment by a process in which osteoblasts and osteocytes sense applie...
Polymer and lipid membranes can be used as model membranes to mimic real cells or in bio-compatible ...
The human red cell is known to increase its cation permeability when deformed by mechanical forces. ...
The study of vesicles in suspension is important to understand the complicated dynamics exhibited by...
Directly examining subcellular mechanics whilst avoiding excessive strain of a live cell requires th...
The membranes of human red blood cells (RBCs) are a composite of a fluid lipid bilayer and a triangu...
Red cells which adhere to a surface in a parallel plate flow channel are stretched when acted on by ...
The shape as well as tension and pressure inside an uncharged vesicle are understood to be determine...
AbstractBiomimetic membranes are fluid and can undergo two different elastic deformations, bending a...
The shape as well as tension and pressure inside an uncharged vesicle are understood to be determine...
The several widely different values of the elastic modulus of the human red blood cell membrane whic...
Due to the complexity of the in vivo environment, in vitro cell studies provide valuable insights in...
We highlight mechanical stretching and bending of membranes and the importance of membrane deformati...
<p>The membrane’s top face sustains a stress <i>σ</i><sub>b</sub> arising from bond deformation. The...
The cell membrane is an essential component of living cells and the dynamics of the membrane will pr...
AbstractBone adapts to its environment by a process in which osteoblasts and osteocytes sense applie...
Polymer and lipid membranes can be used as model membranes to mimic real cells or in bio-compatible ...
The human red cell is known to increase its cation permeability when deformed by mechanical forces. ...
The study of vesicles in suspension is important to understand the complicated dynamics exhibited by...
Directly examining subcellular mechanics whilst avoiding excessive strain of a live cell requires th...
The membranes of human red blood cells (RBCs) are a composite of a fluid lipid bilayer and a triangu...
Red cells which adhere to a surface in a parallel plate flow channel are stretched when acted on by ...