<p>(A, B) Population-averaged normalized gain curves as a function of frequency for regular (A) and irregular (B) afferents. (C, D) Population-averaged normalized gains for regular (C) and irregular (D) afferents. (E) Population-averaged attenuation indices for central neurons, regular afferents, and irregular afferents.</p
<p>(A) Typical tuning curve of a neuron, with mean firing rate (thick line) and standard deviation (...
<p>(A) Response functions exemplified by normalized Hill functions with different Hill exponents <i...
<p>(A) Cortical recruitment functions (CRFs) in silence (i) and noise (ii) in all of the auditory fi...
<p>(A) Model (solid) and data (dashed) relationships between afferent firing rate and central VO neu...
<p>(A) Mean rate-intensity function for neurons in area 3b, computed from responses to sinusoids; ma...
<p>(A) Average distribution of normalized firing rates by location/SNR. For each unit, , where is t...
<p>(A) Normalized amplitude vs. in response to mean current modulations, simulations (circles) and...
<p><b>A</b>: Spike-train variances (black) and (gray) of excitatory and inhibitory neurons. <b>B</...
<p>A. The population isointensity curve of 167 neurons that their firing rates were normalized and t...
<p>(A) Vestibular information is transmitted from the sensory end organs through two types of affere...
<p>(A) Schematic showing the LN model's assumptions. The stimulus (left) is convolved with a filter ...
<p>(A) Spectrogram of one band-pass noise stimulus (left) and corresponding spectrogram of a single ...
<p>(Top) Representation of periodic mean stimuli in the population rate of noisy, independent neuron...
<p>A: Scheme of the linear-nonlinear model to fit <b>PostE</b> responses. The stimulus is first conv...
<p><b>A</b>, Schematic illustration of stimulus gain. The gain is described as the ratio of the cha...
<p>(A) Typical tuning curve of a neuron, with mean firing rate (thick line) and standard deviation (...
<p>(A) Response functions exemplified by normalized Hill functions with different Hill exponents <i...
<p>(A) Cortical recruitment functions (CRFs) in silence (i) and noise (ii) in all of the auditory fi...
<p>(A) Model (solid) and data (dashed) relationships between afferent firing rate and central VO neu...
<p>(A) Mean rate-intensity function for neurons in area 3b, computed from responses to sinusoids; ma...
<p>(A) Average distribution of normalized firing rates by location/SNR. For each unit, , where is t...
<p>(A) Normalized amplitude vs. in response to mean current modulations, simulations (circles) and...
<p><b>A</b>: Spike-train variances (black) and (gray) of excitatory and inhibitory neurons. <b>B</...
<p>A. The population isointensity curve of 167 neurons that their firing rates were normalized and t...
<p>(A) Vestibular information is transmitted from the sensory end organs through two types of affere...
<p>(A) Schematic showing the LN model's assumptions. The stimulus (left) is convolved with a filter ...
<p>(A) Spectrogram of one band-pass noise stimulus (left) and corresponding spectrogram of a single ...
<p>(Top) Representation of periodic mean stimuli in the population rate of noisy, independent neuron...
<p>A: Scheme of the linear-nonlinear model to fit <b>PostE</b> responses. The stimulus is first conv...
<p><b>A</b>, Schematic illustration of stimulus gain. The gain is described as the ratio of the cha...
<p>(A) Typical tuning curve of a neuron, with mean firing rate (thick line) and standard deviation (...
<p>(A) Response functions exemplified by normalized Hill functions with different Hill exponents <i...
<p>(A) Cortical recruitment functions (CRFs) in silence (i) and noise (ii) in all of the auditory fi...