The Hodgkin-Huxley equations, as modified by Noble for computation of Purkinje fiber action potentials, have been solved numerically for a membrane whose equivalent circuit contains a constant resistance in series with part of the capacitance. The rates of depolarization and repolarization of the computed action potential have thereby been brought into agreement with measured values. Possible explanations of the frequently observed pre-plateau notch and of fibrillatory activity arise. The effects of a time-dependent K conductance dependent on the second power of the parameter n, instead of the fourth, have also been considered
A method is presented for determining the magnitude of the ionic current associated with the propaga...
The impedence of sheep Purkinje strands, measured to 3–5 kHz, is interpreted with circuit models bas...
Propagation of the action potential is a complex process, and the relationships among the various fa...
The Hodgkin-Huxley equations, as modified by Noble for computation of Purkinje fiber action potentia...
Recent measurements have indicated that some of the cardiac cell electrical capacitance is in series...
Measurements of the electrical properties of the cardiac Purkinje fibre membrane have been ...
Solutions have been computed for the point polarization of a sheet-like membrane obeying the equatio...
A change in the holding voltage, exposure to channel-blocking agents, and similar interventions will...
We have used numerical methods for solving cable equations, combined with previously published mathe...
Conduction of the action potential in cardiac muscle is complicated by its multicellular structure, ...
A model of a 100 micrometers diameter Purkinje fiber with intercellular clefts was studied under vol...
The inward sodium current in cardiac muscle is difficult to study by voltage clamp methods, so vario...
The capacitance C′e, presumed to be located across the walls of the transverse tubules of twitch fib...
Previous studies performed on myelinated nerve fibers have shown that a high frequency alternating c...
poster abstractMemristor, a short for memory resistor, is the fourth ideal circuit element whose val...
A method is presented for determining the magnitude of the ionic current associated with the propaga...
The impedence of sheep Purkinje strands, measured to 3–5 kHz, is interpreted with circuit models bas...
Propagation of the action potential is a complex process, and the relationships among the various fa...
The Hodgkin-Huxley equations, as modified by Noble for computation of Purkinje fiber action potentia...
Recent measurements have indicated that some of the cardiac cell electrical capacitance is in series...
Measurements of the electrical properties of the cardiac Purkinje fibre membrane have been ...
Solutions have been computed for the point polarization of a sheet-like membrane obeying the equatio...
A change in the holding voltage, exposure to channel-blocking agents, and similar interventions will...
We have used numerical methods for solving cable equations, combined with previously published mathe...
Conduction of the action potential in cardiac muscle is complicated by its multicellular structure, ...
A model of a 100 micrometers diameter Purkinje fiber with intercellular clefts was studied under vol...
The inward sodium current in cardiac muscle is difficult to study by voltage clamp methods, so vario...
The capacitance C′e, presumed to be located across the walls of the transverse tubules of twitch fib...
Previous studies performed on myelinated nerve fibers have shown that a high frequency alternating c...
poster abstractMemristor, a short for memory resistor, is the fourth ideal circuit element whose val...
A method is presented for determining the magnitude of the ionic current associated with the propaga...
The impedence of sheep Purkinje strands, measured to 3–5 kHz, is interpreted with circuit models bas...
Propagation of the action potential is a complex process, and the relationships among the various fa...