AbstractAchieving controlled extracellular microstimulation of the central nervous system requires understanding the membrane response of a neuron to an applied electric field. The “activating function” has been proposed as an intuitive predictor of membrane polarization during stimulation, but subsequent literature raised several limitations of this estimate. In this study, we show that, depending on the space constant λ, the steady-state solution to the passive cable equation is theoretically well approximated by either the activating function when λ is small, or the “mirror” image of the extracellular potential when λ is large. Using simulations, we then explore the respective domain of both estimates as a function of λ, stimulus duratio...
Electrical stimulation of cardiac cells by imposed extracellular electric fields results in a transm...
A theoretical basis is provided for the estimation of the electrotonic length of a membrane cylinder...
The cable model of a passive, myelinated fiber is derived using the theory of electromagnetic propag...
AbstractAchieving controlled extracellular microstimulation of the central nervous system requires u...
<p>Longitudinal profiles of extracellular potential <i>V<sub>ext</sub></i> (<b>A</b>) and membrane p...
We present a theory for estimation of the dendritic electrotonic length constant and the membrane ti...
To fully understand the mechanisms of defibrillation, it is critical to know how a given electrical ...
The cable model of a passive, unmyelinated fiber in an applied extracellular field is derived. The s...
A model is presented for the subthreshold polarization of a neuron by an applied electric field. It ...
Electrical stimulation of the central nervous system has been widely used for decades for either fun...
Cable theory is used to model fibers (neural or muscular) subjected to an extracellular stimulus or ...
Solutions have been computed for the point polarization of a sheet-like membrane obeying the equatio...
Axonal stimulation with electric currents is an effective method for controlling neural activity. An...
AbstractThe goal of this study was to determine which neural elements are excited by microstimulatio...
An electric field can polarize a neuron, especially a neuron with elongated dendrites, and thus modi...
Electrical stimulation of cardiac cells by imposed extracellular electric fields results in a transm...
A theoretical basis is provided for the estimation of the electrotonic length of a membrane cylinder...
The cable model of a passive, myelinated fiber is derived using the theory of electromagnetic propag...
AbstractAchieving controlled extracellular microstimulation of the central nervous system requires u...
<p>Longitudinal profiles of extracellular potential <i>V<sub>ext</sub></i> (<b>A</b>) and membrane p...
We present a theory for estimation of the dendritic electrotonic length constant and the membrane ti...
To fully understand the mechanisms of defibrillation, it is critical to know how a given electrical ...
The cable model of a passive, unmyelinated fiber in an applied extracellular field is derived. The s...
A model is presented for the subthreshold polarization of a neuron by an applied electric field. It ...
Electrical stimulation of the central nervous system has been widely used for decades for either fun...
Cable theory is used to model fibers (neural or muscular) subjected to an extracellular stimulus or ...
Solutions have been computed for the point polarization of a sheet-like membrane obeying the equatio...
Axonal stimulation with electric currents is an effective method for controlling neural activity. An...
AbstractThe goal of this study was to determine which neural elements are excited by microstimulatio...
An electric field can polarize a neuron, especially a neuron with elongated dendrites, and thus modi...
Electrical stimulation of cardiac cells by imposed extracellular electric fields results in a transm...
A theoretical basis is provided for the estimation of the electrotonic length of a membrane cylinder...
The cable model of a passive, myelinated fiber is derived using the theory of electromagnetic propag...