<p>A: Membrane voltage traces of the BS (blue), eP (green) and P (red) neuron models in response to a weak ( pA, <i>σ</i><sub>s</sub> = 11.94 pA, top) and a strong input current ( pA, <i>σ</i><sub>s</sub> = 33.34 pA, bottom). The parameter values of the P model were tuned independently to maximize the coincidence factor Γ<sub>BS,P</sub> for each set of input parameters. B: Coincidence factor for the BS and eP model spike trains, Γ<sub>BS,eP</sub> (left), and for the BS and P model spike trains, Γ<sub>BS,P</sub> (right) as a function of input mean and standard deviation <i>σ</i><sub>s</sub>. C: Difference Γ<sub>BS,eP</sub> − Γ<sub>BS,P</sub> between the coincidence factors shown in B. D: Spike rate difference of the BS and eP models (left) ...
<p><b>A</b> Fast-spiking interneurons in layer II/III of primary somatosensory cortex were patched i...
<p>(A) A 5 Hz action potential burst voltage file generated from the NEURON model. (B) Ca<sup>2+</su...
Similarity between two spike trains is generally estimated using a ‘coincidence factor’. This factor...
<p>A: Gain and phase of the input filter as a function of frequency. The neuronal morphology varied...
<p><b>A:</b> Mean output firing rate (, solid) and mean cross-covariance strength (covariance normal...
A: schematic circuit diagram for the membrane voltage dynamics of the two-compartment (2C) model. B:...
<p><b>A,B</b>: Network sketches for the feedback (A) and feedforward scenario (B). <b>C,D</b>: Spiki...
From top to bottom: Current step. Spike raster plot for for 4 neurons. Voltage traces for the 4 neur...
<p>A: Schematic of the neuron model. B: Left: exemplary APs and spikelets (solid line: soma, dashed ...
<p>A) Membrane potential traces recorded in a neuron <i>in vitro</i> (“Observed”) and simulated trac...
<p>Top row (<b>A</b>–<b>C</b>): Unperturbed feedback (FB; black), shuffling of spike-train senders a...
<p>(A) Schematic illustration of the ball and stick neuron model with a single input at a given posi...
<p>Left: (Top) Raster plot of randomly chosen neurons (out of a total of neurons in the simulation...
<p>A: Neuronal morphology used to construct the model neurons. B, C: Experimental traces (top) and v...
<p>A: Input current <i>I</i><sub>E</sub> to reproduce the effect of a 1 V/m field in the eP model. I...
<p><b>A</b> Fast-spiking interneurons in layer II/III of primary somatosensory cortex were patched i...
<p>(A) A 5 Hz action potential burst voltage file generated from the NEURON model. (B) Ca<sup>2+</su...
Similarity between two spike trains is generally estimated using a ‘coincidence factor’. This factor...
<p>A: Gain and phase of the input filter as a function of frequency. The neuronal morphology varied...
<p><b>A:</b> Mean output firing rate (, solid) and mean cross-covariance strength (covariance normal...
A: schematic circuit diagram for the membrane voltage dynamics of the two-compartment (2C) model. B:...
<p><b>A,B</b>: Network sketches for the feedback (A) and feedforward scenario (B). <b>C,D</b>: Spiki...
From top to bottom: Current step. Spike raster plot for for 4 neurons. Voltage traces for the 4 neur...
<p>A: Schematic of the neuron model. B: Left: exemplary APs and spikelets (solid line: soma, dashed ...
<p>A) Membrane potential traces recorded in a neuron <i>in vitro</i> (“Observed”) and simulated trac...
<p>Top row (<b>A</b>–<b>C</b>): Unperturbed feedback (FB; black), shuffling of spike-train senders a...
<p>(A) Schematic illustration of the ball and stick neuron model with a single input at a given posi...
<p>Left: (Top) Raster plot of randomly chosen neurons (out of a total of neurons in the simulation...
<p>A: Neuronal morphology used to construct the model neurons. B, C: Experimental traces (top) and v...
<p>A: Input current <i>I</i><sub>E</sub> to reproduce the effect of a 1 V/m field in the eP model. I...
<p><b>A</b> Fast-spiking interneurons in layer II/III of primary somatosensory cortex were patched i...
<p>(A) A 5 Hz action potential burst voltage file generated from the NEURON model. (B) Ca<sup>2+</su...
Similarity between two spike trains is generally estimated using a ‘coincidence factor’. This factor...