The dependence of erythrocyte transmembrane potential (A) and intracellular ion concentrations (B) on the non-selective cell membrane permeability for cations (g) in different models. (A)-The numbers on the curves indicate model versions as in Fig 2; (B)-the red, blue, green, and black lines show concentrations of K+, Na+, Cl-, and total concentration of intracellular macromolecules and metabolites (W/V) respectively. Solid and dashed lines show data obtained for the model with Na/K-ATPase (model version 1), and with Na-ATPase (model version 2) respectively.</p
<p>Lines are guides to eye delineating the various states. Membrane composition: DPhPC/chol/CL = 55...
Protocol to control hydration state of RBC The normal K+ concentration in human RBCs is about 130-14...
A cell's permeability is determined primarily by the chemical composition and the physical char...
The dependence of the relative stationary volume of the erythrocyte (A) and stationary intracellular...
(A)—The steady-state rate of ATP consumption by ion pumps; (B)—ATP concentration; (C)–Energy charge ...
Panels (A) and (B) show the dependence of the relative erythrocyte cell volume on the non-selective ...
The model includes actively maintained transmembrane Na+ and K+ gradients and transport Na/K-ATPase ...
In panel (A) parameter W (Table 1) was varied above and below its physiological value. In panel (B) ...
Functional effectiveness of erythrocytes depends on their high deformability that allows them to pas...
<p>Time-dependent changes in the membrane potential (<b>A</b>), intracellular concentration (<b>B<...
<p>The centre of the membrane corresponds to z = 0. (A) DPhPC bilayer (solid line) vs. TEP monolayer...
Solid and dotted purple arrows show active and passive ion fluxes through the cell membrane, respect...
<p>Arrow direction shows model prediction for the change in intracellular concentrations and membran...
<p>Different states of permealization are delineated: • impermeable;+porous, non-lytic; ▴ porous, ly...
A: [Na+]i, [K+]i, [Cl-]i, and [An-]i, (left axis, with labels to the left of the axis), the cell vol...
<p>Lines are guides to eye delineating the various states. Membrane composition: DPhPC/chol/CL = 55...
Protocol to control hydration state of RBC The normal K+ concentration in human RBCs is about 130-14...
A cell's permeability is determined primarily by the chemical composition and the physical char...
The dependence of the relative stationary volume of the erythrocyte (A) and stationary intracellular...
(A)—The steady-state rate of ATP consumption by ion pumps; (B)—ATP concentration; (C)–Energy charge ...
Panels (A) and (B) show the dependence of the relative erythrocyte cell volume on the non-selective ...
The model includes actively maintained transmembrane Na+ and K+ gradients and transport Na/K-ATPase ...
In panel (A) parameter W (Table 1) was varied above and below its physiological value. In panel (B) ...
Functional effectiveness of erythrocytes depends on their high deformability that allows them to pas...
<p>Time-dependent changes in the membrane potential (<b>A</b>), intracellular concentration (<b>B<...
<p>The centre of the membrane corresponds to z = 0. (A) DPhPC bilayer (solid line) vs. TEP monolayer...
Solid and dotted purple arrows show active and passive ion fluxes through the cell membrane, respect...
<p>Arrow direction shows model prediction for the change in intracellular concentrations and membran...
<p>Different states of permealization are delineated: • impermeable;+porous, non-lytic; ▴ porous, ly...
A: [Na+]i, [K+]i, [Cl-]i, and [An-]i, (left axis, with labels to the left of the axis), the cell vol...
<p>Lines are guides to eye delineating the various states. Membrane composition: DPhPC/chol/CL = 55...
Protocol to control hydration state of RBC The normal K+ concentration in human RBCs is about 130-14...
A cell's permeability is determined primarily by the chemical composition and the physical char...