<p>The values on the x-axis represent the center frequency of the filters (each 100 Hz wide). Error bars denote the SEM. Surprisingly, low-frequency components (<200 Hz) seem to travel faster than high frequency components.</p
<p>The decay exponent is lowest (and so decay is slowest) at around 200–250 Hz, at which Pacinian af...
Auditory filter shapes were derived for signal frequencies (fs) between 50 and 1000 Hz, using the no...
The effects of 14 filter conditions with cutoff ranging from 3 kc/sec to 50 c/sec and with either 6 ...
<p>a) Group delay as a function of frequency for low-pass filter of 320 Hz (bottom), 160 Hz (middle)...
<p>(a) The perceived spatial frequency of a grating embedded in low-pass noise (red) and high-pass n...
<p>The x-axis represents the noise level (including the no noise condition) for a pair of random dot...
<p>Response waveforms from 0.4 kHz to 1.5 kHz reveal a well-defined frequency following response (FF...
<p>Plot of all channel-level pattern effects exceeding the <i>p</i> < .0005 threshold. The bars indi...
Prediction and assessment of low-frequency noise problems requires information about the auditory fi...
Acknowledgements: We thank Hedwig Gockel for advice about statistics and helpful comments on an earl...
<p>Low frequencies are less susceptible to temporal blur and higher speeds tend to cause less blur.<...
<p>Detection accuracy, obtained using amplitudes from different frequency bands of the ECoG. Every c...
• A signal is composed of low and high frequency components! low frequency components: smooth /&quo...
<p>(A) Distribution of wave speeds for the responses to 4-Hz contrast reversal gratings for all 10 e...
<p>(A) Partial representation of a population code composed of (decoding) waveforms learned from ICA...
<p>The decay exponent is lowest (and so decay is slowest) at around 200–250 Hz, at which Pacinian af...
Auditory filter shapes were derived for signal frequencies (fs) between 50 and 1000 Hz, using the no...
The effects of 14 filter conditions with cutoff ranging from 3 kc/sec to 50 c/sec and with either 6 ...
<p>a) Group delay as a function of frequency for low-pass filter of 320 Hz (bottom), 160 Hz (middle)...
<p>(a) The perceived spatial frequency of a grating embedded in low-pass noise (red) and high-pass n...
<p>The x-axis represents the noise level (including the no noise condition) for a pair of random dot...
<p>Response waveforms from 0.4 kHz to 1.5 kHz reveal a well-defined frequency following response (FF...
<p>Plot of all channel-level pattern effects exceeding the <i>p</i> < .0005 threshold. The bars indi...
Prediction and assessment of low-frequency noise problems requires information about the auditory fi...
Acknowledgements: We thank Hedwig Gockel for advice about statistics and helpful comments on an earl...
<p>Low frequencies are less susceptible to temporal blur and higher speeds tend to cause less blur.<...
<p>Detection accuracy, obtained using amplitudes from different frequency bands of the ECoG. Every c...
• A signal is composed of low and high frequency components! low frequency components: smooth /&quo...
<p>(A) Distribution of wave speeds for the responses to 4-Hz contrast reversal gratings for all 10 e...
<p>(A) Partial representation of a population code composed of (decoding) waveforms learned from ICA...
<p>The decay exponent is lowest (and so decay is slowest) at around 200–250 Hz, at which Pacinian af...
Auditory filter shapes were derived for signal frequencies (fs) between 50 and 1000 Hz, using the no...
The effects of 14 filter conditions with cutoff ranging from 3 kc/sec to 50 c/sec and with either 6 ...