This paper deals with the physical interpretation of existing mathematical models which describe the transient sodium conductance changes in excitable membranes. It is shown that there are clear limitations to the specificity of inferences which may be drawn about physical mechanism from the behavior of abstract models. Within these limitations, it is shown that a pronounced inactivation shift is not necessarily evidence for coupling between the events responsible for the rise and inactivation of the sodium conductance, but that the inactivation shift may be associated with an event whose rate explicitly depends on the rate of continuous voltage change or magnitude of instantaneous voltage change
The model of the excitable membrane assumes common channels for Na+ and K+; the two ion species inte...
A standard membrane model, based on the continuous deterministic Hodgkin-Huxley equations, is compar...
We have approached the problem of nerve excitability through three questions: (a) What is the diagra...
This paper deals with the physical interpretation of existing mathematical models which describe the...
In this paper we explore the properties of a mathematical model for the passive sodium permeability ...
In this paper we explore the properties of a mathematical model for the passive sodium permeability ...
We have examined the steady-state and time-dependent electrical properties of a model membrane syste...
The voltage clamp results of Hodgkin and Huxley have been reanalyzed in terms of alternative mathema...
We have developed a novel technique for simulating the influence of the effects of single channel ki...
A number of models proposed to account for the sodium conductance changes are shown to fall into two...
A quantitative study of the steady-state behavior of the sodium and potassium conductance for the Ho...
Tightly coupled models for the sodium and potassium conductance changes, in which the potassium “on”...
We describe a kinetic reaction sequence for the sodium conductance system in the squid axon. It clos...
A new model is proposed to account for the apparent conductance changes of the sodium, or early, cha...
Rawlings PK, Neumann E. Physical-chemical approach to the transient change in Na ion conductivity of...
The model of the excitable membrane assumes common channels for Na+ and K+; the two ion species inte...
A standard membrane model, based on the continuous deterministic Hodgkin-Huxley equations, is compar...
We have approached the problem of nerve excitability through three questions: (a) What is the diagra...
This paper deals with the physical interpretation of existing mathematical models which describe the...
In this paper we explore the properties of a mathematical model for the passive sodium permeability ...
In this paper we explore the properties of a mathematical model for the passive sodium permeability ...
We have examined the steady-state and time-dependent electrical properties of a model membrane syste...
The voltage clamp results of Hodgkin and Huxley have been reanalyzed in terms of alternative mathema...
We have developed a novel technique for simulating the influence of the effects of single channel ki...
A number of models proposed to account for the sodium conductance changes are shown to fall into two...
A quantitative study of the steady-state behavior of the sodium and potassium conductance for the Ho...
Tightly coupled models for the sodium and potassium conductance changes, in which the potassium “on”...
We describe a kinetic reaction sequence for the sodium conductance system in the squid axon. It clos...
A new model is proposed to account for the apparent conductance changes of the sodium, or early, cha...
Rawlings PK, Neumann E. Physical-chemical approach to the transient change in Na ion conductivity of...
The model of the excitable membrane assumes common channels for Na+ and K+; the two ion species inte...
A standard membrane model, based on the continuous deterministic Hodgkin-Huxley equations, is compar...
We have approached the problem of nerve excitability through three questions: (a) What is the diagra...