Neuromagnetic representation of vowel prosody in the auditory cortex

), which underlies perceived pitch, can change dynamically over time. However, it remains elusive how such prosodic glides shape the neural response in the auditory cortex. The current magnetoencephalography (MEG) experiment was designed to study the transient and sustained neuromagnetic correlates of prosodic contour information in vowels, with a particular focus on the P2 component. Twenty-four normal-hearing participants passively listened to vowel sequences in which both vowel type and prosodic contour were either unchanged or varied between successive vowels. At the level of single vowels, the results showed that falling contours elicit larger and earlier P2 responses than rising and flat prosodic contours. At the level of vowel triplets, the P2 was larger in response to stimulus sequences in which prosodic contour was varied across stimuli. The data indicate that the P2 might be a neural correlate of the early processing of prosodic contour information; moreover, they suggest that the P2 might be particularly sensitive to pitch glides, possibly due to longer time constants that are encompassed within the P2.

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Publication Details

Journal
Scientific Reports
Published
2026-09-01
DOI
https://doi.org/10.1038/s41598-026-68466-x
Primary Topic
Phonetics and Phonology Research
Type
article
Field-Weighted Citation Impact
0.00

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article

Neuromagnetic representation of vowel prosody in the auditory cortex

Martin Andermann, Esther Megbel, Kurt Steinmetzger, André Rupp
Scientific Reports
Phonetics and Phonology Research
article

Neuromagnetic representation of vowel prosody in the auditory cortex

Martin Andermann, Esther Megbel, Kurt Steinmetzger, André Rupp
article en

Abstract

), which underlies perceived pitch, can change dynamically over time. However, it remains elusive how such prosodic glides shape the neural response in the auditory cortex. The current magnetoencephalography (MEG) experiment was designed to study the transient and sustained neuromagnetic correlates of prosodic contour information in vowels, with a particular focus on the P2 component. Twenty-four normal-hearing participants passively listened to vowel sequences in which both vowel type and prosodic contour were either unchanged or varied between successive vowels. At the level of single vowels, the results showed that falling contours elicit larger and earlier P2 responses than rising and flat prosodic contours. At the level of vowel triplets, the P2 was larger in response to stimulus sequences in which prosodic contour was varied across stimuli. The data indicate that the P2 might be a neural correlate of the early processing of prosodic contour information; moreover, they suggest that the P2 might be particularly sensitive to pitch glides, possibly due to longer time constants that are encompassed within the P2.

Scientific ReportsVol. 16(1)
Heidelberg University (DE), University Hospital Heidelberg (DE), Central Institute of Mental Health (DE), Charité - Universitätsmedizin Berlin (DE)
Dietmar Hopp Stiftung, Universitätsklinikum Heidelberg
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Phonetics and Phonology Research
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