Inter-subject synchronization of brain responses during natural music listening

Music is a cultural universal and a rich part of the human experience. However, little is known about common brain systems that support the processing and integration of extended, naturalistic ‘real‐world’ music stimuli. We examined this question by presenting extended excerpts of symphonic music, a...

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Bibliographic Details
Published inThe European journal of neuroscience Vol. 37; no. 9; pp. 1458 - 1469
Main Authors Abrams, Daniel A., Ryali, Srikanth, Chen, Tianwen, Chordia, Parag, Khouzam, Amirah, Levitin, Daniel J., Menon, Vinod
Format Journal Article
LanguageEnglish
Published Oxford Blackwell Publishing Ltd 01.05.2013
Blackwell
Subjects
Acoustic Stimulation
Adult
auditory cortex
Auditory Perception
Biological and medical sciences
Brain - physiology
Brain Mapping
Ear and associated structures. Auditory pathways and centers. Hearing. Vocal organ. Phonation. Sound production. Echolocation
Female
Fundamental and applied biological sciences. Psychology
Humans
inferior colliculus
inferior frontal gyrus
Male
medial geniculate
Music
Nerve Net - physiology
parietal cortex
Vertebrates: nervous system and sense organs
Medial geniculate body
Human
medial geniculate
Colliculus inferior
inferior frontal gyrus
Central nervous system
Parietal cortex
inferior colliculus
Auditory pathway
Synchronization
Auditory cortex
Encephalon
Online AccessGet full text
ISSN0953-816X
1460-9568
1460-9568
DOI10.1111/ejn.12173

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Abstract Music is a cultural universal and a rich part of the human experience. However, little is known about common brain systems that support the processing and integration of extended, naturalistic ‘real‐world’ music stimuli. We examined this question by presenting extended excerpts of symphonic music, and two pseudomusical stimuli in which the temporal and spectral structure of the Natural Music condition were disrupted, to non‐musician participants undergoing functional brain imaging and analysing synchronized spatiotemporal activity patterns between listeners. We found that music synchronizes brain responses across listeners in bilateral auditory midbrain and thalamus, primary auditory and auditory association cortex, right‐lateralized structures in frontal and parietal cortex, and motor planning regions of the brain. These effects were greater for natural music compared to the pseudo‐musical control conditions. Remarkably, inter‐subject synchronization in the inferior colliculus and medial geniculate nucleus was also greater for the natural music condition, indicating that synchronization at these early stages of auditory processing is not simply driven by spectro‐temporal features of the stimulus. Increased synchronization during music listening was also evident in a right‐hemisphere fronto‐parietal attention network and bilateral cortical regions involved in motor planning. While these brain structures have previously been implicated in various aspects of musical processing, our results are the first to show that these regions track structural elements of a musical stimulus over extended time periods lasting minutes. Our results show that a hierarchical distributed network is synchronized between individuals during the processing of extended musical sequences, and provide new insight into the temporal integration of complex and biologically salient auditory sequences. Little is known about common brain systems that support the integration of extended, naturalistic music stimuli. We show that music synchronizes brain response across listeners in bilateral auditory midbrain and thalamus, auditory cortex, right‐lateralized structures in frontal and parietal cortex, and motor planning regions of the brain. Results show that a hierarchical distributed network is synchronized between individuals during the processing of extended musical sequences.
AbstractList Music is a cultural universal and a rich part of the human experience. However, little is known about common brain systems that support the processing and integration of extended, naturalistic ‘real‐world’ music stimuli. We examined this question by presenting extended excerpts of symphonic music, and two pseudomusical stimuli in which the temporal and spectral structure of the Natural Music condition were disrupted, to non‐musician participants undergoing functional brain imaging and analysing synchronized spatiotemporal activity patterns between listeners. We found that music synchronizes brain responses across listeners in bilateral auditory midbrain and thalamus, primary auditory and auditory association cortex, right‐lateralized structures in frontal and parietal cortex, and motor planning regions of the brain. These effects were greater for natural music compared to the pseudo‐musical control conditions. Remarkably, inter‐subject synchronization in the inferior colliculus and medial geniculate nucleus was also greater for the natural music condition, indicating that synchronization at these early stages of auditory processing is not simply driven by spectro‐temporal features of the stimulus. Increased synchronization during music listening was also evident in a right‐hemisphere fronto‐parietal attention network and bilateral cortical regions involved in motor planning. While these brain structures have previously been implicated in various aspects of musical processing, our results are the first to show that these regions track structural elements of a musical stimulus over extended time periods lasting minutes. Our results show that a hierarchical distributed network is synchronized between individuals during the processing of extended musical sequences, and provide new insight into the temporal integration of complex and biologically salient auditory sequences.
Music is a cultural universal and a rich part of the human experience. However, little is known about common brain systems that support the processing and integration of extended, naturalistic ‘real‐world’ music stimuli. We examined this question by presenting extended excerpts of symphonic music, and two pseudomusical stimuli in which the temporal and spectral structure of the Natural Music condition were disrupted, to non‐musician participants undergoing functional brain imaging and analysing synchronized spatiotemporal activity patterns between listeners. We found that music synchronizes brain responses across listeners in bilateral auditory midbrain and thalamus, primary auditory and auditory association cortex, right‐lateralized structures in frontal and parietal cortex, and motor planning regions of the brain. These effects were greater for natural music compared to the pseudo‐musical control conditions. Remarkably, inter‐subject synchronization in the inferior colliculus and medial geniculate nucleus was also greater for the natural music condition, indicating that synchronization at these early stages of auditory processing is not simply driven by spectro‐temporal features of the stimulus. Increased synchronization during music listening was also evident in a right‐hemisphere fronto‐parietal attention network and bilateral cortical regions involved in motor planning. While these brain structures have previously been implicated in various aspects of musical processing, our results are the first to show that these regions track structural elements of a musical stimulus over extended time periods lasting minutes. Our results show that a hierarchical distributed network is synchronized between individuals during the processing of extended musical sequences, and provide new insight into the temporal integration of complex and biologically salient auditory sequences. Little is known about common brain systems that support the integration of extended, naturalistic music stimuli. We show that music synchronizes brain response across listeners in bilateral auditory midbrain and thalamus, auditory cortex, right‐lateralized structures in frontal and parietal cortex, and motor planning regions of the brain. Results show that a hierarchical distributed network is synchronized between individuals during the processing of extended musical sequences.
Music is a cultural universal and a rich part of the human experience. However, little is known about common brain systems that support the processing and integration of extended, naturalistic 'real-world' music stimuli. We examined this question by presenting extended excerpts of symphonic music, and two pseudomusical stimuli in which the temporal and spectral structure of the Natural Music condition were disrupted, to non-musician participants undergoing functional brain imaging and analysing synchronized spatiotemporal activity patterns between listeners. We found that music synchronizes brain responses across listeners in bilateral auditory midbrain and thalamus, primary auditory and auditory association cortex, right-lateralized structures in frontal and parietal cortex, and motor planning regions of the brain. These effects were greater for natural music compared to the pseudo-musical control conditions. Remarkably, inter-subject synchronization in the inferior colliculus and medial geniculate nucleus was also greater for the natural music condition, indicating that synchronization at these early stages of auditory processing is not simply driven by spectro-temporal features of the stimulus. Increased synchronization during music listening was also evident in a right-hemisphere fronto-parietal attention network and bilateral cortical regions involved in motor planning. While these brain structures have previously been implicated in various aspects of musical processing, our results are the first to show that these regions track structural elements of a musical stimulus over extended time periods lasting minutes. Our results show that a hierarchical distributed network is synchronized between individuals during the processing of extended musical sequences, and provide new insight into the temporal integration of complex and biologically salient auditory sequences.Music is a cultural universal and a rich part of the human experience. However, little is known about common brain systems that support the processing and integration of extended, naturalistic 'real-world' music stimuli. We examined this question by presenting extended excerpts of symphonic music, and two pseudomusical stimuli in which the temporal and spectral structure of the Natural Music condition were disrupted, to non-musician participants undergoing functional brain imaging and analysing synchronized spatiotemporal activity patterns between listeners. We found that music synchronizes brain responses across listeners in bilateral auditory midbrain and thalamus, primary auditory and auditory association cortex, right-lateralized structures in frontal and parietal cortex, and motor planning regions of the brain. These effects were greater for natural music compared to the pseudo-musical control conditions. Remarkably, inter-subject synchronization in the inferior colliculus and medial geniculate nucleus was also greater for the natural music condition, indicating that synchronization at these early stages of auditory processing is not simply driven by spectro-temporal features of the stimulus. Increased synchronization during music listening was also evident in a right-hemisphere fronto-parietal attention network and bilateral cortical regions involved in motor planning. While these brain structures have previously been implicated in various aspects of musical processing, our results are the first to show that these regions track structural elements of a musical stimulus over extended time periods lasting minutes. Our results show that a hierarchical distributed network is synchronized between individuals during the processing of extended musical sequences, and provide new insight into the temporal integration of complex and biologically salient auditory sequences.
Music is a cultural universal and a rich part of the human experience. However, little is known about common brain systems that support the processing and integration of extended, naturalistic 'real-world' music stimuli. We examined this question by presenting extended excerpts of symphonic music, and two pseudomusical stimuli in which the temporal and spectral structure of the Natural Music condition were disrupted, to non-musician participants undergoing functional brain imaging and analysing synchronized spatiotemporal activity patterns between listeners. We found that music synchronizes brain responses across listeners in bilateral auditory midbrain and thalamus, primary auditory and auditory association cortex, right-lateralized structures in frontal and parietal cortex, and motor planning regions of the brain. These effects were greater for natural music compared to the pseudo-musical control conditions. Remarkably, inter-subject synchronization in the inferior colliculus and medial geniculate nucleus was also greater for the natural music condition, indicating that synchronization at these early stages of auditory processing is not simply driven by spectro-temporal features of the stimulus. Increased synchronization during music listening was also evident in a right-hemisphere fronto-parietal attention network and bilateral cortical regions involved in motor planning. While these brain structures have previously been implicated in various aspects of musical processing, our results are the first to show that these regions track structural elements of a musical stimulus over extended time periods lasting minutes. Our results show that a hierarchical distributed network is synchronized between individuals during the processing of extended musical sequences, and provide new insight into the temporal integration of complex and biologically salient auditory sequences. Little is known about common brain systems that support the integration of extended, naturalistic music stimuli. We show that music synchronizes brain response across listeners in bilateral auditory midbrain and thalamus, auditory cortex, right-lateralized structures in frontal and parietal cortex, and motor planning regions of the brain. Results show that a hierarchical distributed network is synchronized between individuals during the processing of extended musical sequences.
Author Abrams, Daniel A.
Chordia, Parag
Chen, Tianwen
Menon, Vinod
Ryali, Srikanth
Levitin, Daniel J.
Khouzam, Amirah
AuthorAffiliation 2 Program in Neuroscience, Stanford University School of Medicine, Stanford, CA, USA
5 Department of Psychology, McGill University, Montreal, QC, Canada
3 Department of Neurology and Neurological Sciences, Stanford University School of Medicine, Stanford, CA, USA
1 Department of Psychiatry and Behavioral Sciences, Stanford University School of Medicine, Stanford, CA, 94304, USA
4 Department of Music, Georgia Institute of Technology, Atlanta, GA, USA
AuthorAffiliation_xml – name: 4 Department of Music, Georgia Institute of Technology, Atlanta, GA, USA
– name: 5 Department of Psychology, McGill University, Montreal, QC, Canada
– name: 2 Program in Neuroscience, Stanford University School of Medicine, Stanford, CA, USA
– name: 3 Department of Neurology and Neurological Sciences, Stanford University School of Medicine, Stanford, CA, USA
– name: 1 Department of Psychiatry and Behavioral Sciences, Stanford University School of Medicine, Stanford, CA, 94304, USA
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  givenname: Daniel A.
  surname: Abrams
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  surname: Chen
  fullname: Chen, Tianwen
  organization: Department of Psychiatry and Behavioral Sciences, Stanford University School of Medicine, CA, 94304, Stanford, USA
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1460-9568
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Issue 9
Keywords Medial geniculate body
Human
medial geniculate
Colliculus inferior
inferior frontal gyrus
Central nervous system
Parietal cortex
inferior colliculus
Auditory pathway
Synchronization
Auditory cortex
Encephalon
Language English
License CC BY 4.0
2013 Federation of European Neuroscience Societies and John Wiley & Sons Ltd.
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Notes Natural Sciences and Engineering Research Council of Canada - No. 228175-2010
istex:EDAB2D3E54817A649025E539F82C2458FAFB63D1
NIH - No. F32 DC010322-01A2; No. 1R21DC011095
ark:/67375/WNG-BFQSBG4L-0
National Science Foundation - No. BCS0449927
Fig. S1. Differences between ISS and GLM approaches for the analysis of music processing in the brain. Fig. S2. Flow chart for ISS Analysis. Synchronization was calculated by computing Pearson correlations between the voxel time series in each pair of subjects (136 subject-to-subject comparisons total).Data S1. Methods.
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Snippet Music is a cultural universal and a rich part of the human experience. However, little is known about common brain systems that support the processing and...
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StartPage 1458
SubjectTerms Acoustic Stimulation
Adult
auditory cortex
Auditory Perception
Biological and medical sciences
Brain - physiology
Brain Mapping
Ear and associated structures. Auditory pathways and centers. Hearing. Vocal organ. Phonation. Sound production. Echolocation
Female
Fundamental and applied biological sciences. Psychology
Humans
inferior colliculus
inferior frontal gyrus
Male
medial geniculate
Music
Nerve Net - physiology
parietal cortex
Vertebrates: nervous system and sense organs
Title Inter-subject synchronization of brain responses during natural music listening
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https://onlinelibrary.wiley.com/doi/abs/10.1111%2Fejn.12173
https://www.ncbi.nlm.nih.gov/pubmed/23578016
https://www.proquest.com/docview/1349398849
https://www.proquest.com/docview/1356930312
https://pubmed.ncbi.nlm.nih.gov/PMC4487043
Volume 37
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