Frequency modulation is critical to human speech. Evidence from psychophysics, neurophysiology, and neuroimaging suggests that there are neuronal populations tuned to this property of speech. Consistent with this, extended exposure to frequency change produces direction specific aftereffects in frequency change detection. We show that this aftereffect occurs extremely rapidly, requiring only a single trial of just 100-ms duration. We demonstrate this using a long, randomized series of frequency sweeps (both upward and downward, by varying amounts) and analyzing intertrial adaptation effects. We show the point of constant frequency is shifted systematically towards the previous trial’s sweep direction (i.e., a frequency sweep aftereffect). F...
Exposure to synchronous but spatially discordant auditory and visual inputs produces, beyond immedia...
Exposure to synchronous but spatially discordant auditory and visual inputs produces, beyond immedia...
How do human brain networks react to dynamic changes in the sensory environment? We measured rapid c...
Frequency modulation (FM) is a basic constituent of vocalisation in many animals as well as in human...
The human ability to continuously track dynamic environmental stimuli, in particular speech, is prop...
Auditory neurons must represent accurately a wide range of sound levels using firing rates that vary...
BACKGROUND: When a second sound follows a long first sound, its location appears to be perceived awa...
In this thesis, selective adaptation experiments are presented which investigate motion detection a...
Typical speech rates in conversation or broadcast media are around 150 to 200 words per minute. Yet,...
When presented with alternating low and high tones, listeners are more likely to perceive 2 separate...
<div><h3>Background</h3><p>When a second sound follows a long first sound, its location appears to b...
Frequency modulation (FM) is a basic constituent of vocalisation. Formant transitions in speech are ...
The human brain exhibits a highly adaptive ability to reduce natural asynchronies between visual and...
Frequency modulations (FM) play a decisive role in our everyday communication. To investigate the pr...
Temporal relations between sound events can be perceived without critical difficulty although it is ...
Exposure to synchronous but spatially discordant auditory and visual inputs produces, beyond immedia...
Exposure to synchronous but spatially discordant auditory and visual inputs produces, beyond immedia...
How do human brain networks react to dynamic changes in the sensory environment? We measured rapid c...
Frequency modulation (FM) is a basic constituent of vocalisation in many animals as well as in human...
The human ability to continuously track dynamic environmental stimuli, in particular speech, is prop...
Auditory neurons must represent accurately a wide range of sound levels using firing rates that vary...
BACKGROUND: When a second sound follows a long first sound, its location appears to be perceived awa...
In this thesis, selective adaptation experiments are presented which investigate motion detection a...
Typical speech rates in conversation or broadcast media are around 150 to 200 words per minute. Yet,...
When presented with alternating low and high tones, listeners are more likely to perceive 2 separate...
<div><h3>Background</h3><p>When a second sound follows a long first sound, its location appears to b...
Frequency modulation (FM) is a basic constituent of vocalisation. Formant transitions in speech are ...
The human brain exhibits a highly adaptive ability to reduce natural asynchronies between visual and...
Frequency modulations (FM) play a decisive role in our everyday communication. To investigate the pr...
Temporal relations between sound events can be perceived without critical difficulty although it is ...
Exposure to synchronous but spatially discordant auditory and visual inputs produces, beyond immedia...
Exposure to synchronous but spatially discordant auditory and visual inputs produces, beyond immedia...
How do human brain networks react to dynamic changes in the sensory environment? We measured rapid c...