Perceptually relevant speech tracking in auditory and motor cortex reflects distinct linguistic features

During online speech processing, our brain tracks the acoustic fluctuations in speech at different timescales. Previous research has focused on generic timescales (for example, delta or theta bands) that are assumed to map onto linguistic features such as prosody or syllables. However, given the hig...

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Veröffentlicht in:PLoS biology 2018-03, Vol.16 (3), p.e2004473-e2004473
Hauptverfasser: Keitel, Anne, Gross, Joachim, Kayser, Christoph
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Kayser, Christoph
description During online speech processing, our brain tracks the acoustic fluctuations in speech at different timescales. Previous research has focused on generic timescales (for example, delta or theta bands) that are assumed to map onto linguistic features such as prosody or syllables. However, given the high intersubject variability in speaking patterns, such a generic association between the timescales of brain activity and speech properties can be ambiguous. Here, we analyse speech tracking in source-localised magnetoencephalographic data by directly focusing on timescales extracted from statistical regularities in our speech material. This revealed widespread significant tracking at the timescales of phrases (0.6-1.3 Hz), words (1.8-3 Hz), syllables (2.8-4.8 Hz), and phonemes (8-12.4 Hz). Importantly, when examining its perceptual relevance, we found stronger tracking for correctly comprehended trials in the left premotor (PM) cortex at the phrasal scale as well as in left middle temporal cortex at the word scale. Control analyses using generic bands confirmed that these effects were specific to the speech regularities in our stimuli. Furthermore, we found that the phase at the phrasal timescale coupled to power at beta frequency (13-30 Hz) in motor areas. This cross-frequency coupling presumably reflects top-down temporal prediction in ongoing speech perception. Together, our results reveal specific functional and perceptually relevant roles of distinct tracking and cross-frequency processes along the auditory-motor pathway.
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Control analyses using generic bands confirmed that these effects were specific to the speech regularities in our stimuli. Furthermore, we found that the phase at the phrasal timescale coupled to power at beta frequency (13-30 Hz) in motor areas. This cross-frequency coupling presumably reflects top-down temporal prediction in ongoing speech perception. 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subjects Acoustic Stimulation
Adolescent
Adult
Auditory cortex
Auditory Cortex - physiology
Biology and Life Sciences
Brain
Brain Mapping
Brain research
Cortex (auditory)
Cortex (motor)
Cortex (premotor)
Cortex (temporal)
Data collection
Engineering and Technology
Female
Funding
Humans
Linguistic research
Linguistics
Magnetoencephalography
Male
Medical imaging
Medicine and Health Sciences
Motor cortex
Motor Cortex - physiology
Neurosciences
Otolaryngology
Phonemes
Phonetics
Physiological aspects
Prosody
Psychology
Research and Analysis Methods
Short Reports
Social Sciences
Speaking
Speech
Speech Perception
Speech processing
Speech production
Syllables
Temporal cortex
Tracking
Tracks (paths)
Variation
title Perceptually relevant speech tracking in auditory and motor cortex reflects distinct linguistic features
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