Publications

• 1. Norman-Haignere SV
  2. Keshishian MK
  3. Devinsky O
  4. Doyle W
  5. McKhann GM
  6. Schevon CA
  7. Flinker A
  8. Mesgarani N
  Temporal integration in human auditory cortex is predominantly yoked to absolute time, not structure duration.; bioRxiv : the preprint server for biology. 2024 Sep 24.
• 1. Regev TI
  2. Lipkin B
  3. Boebinger D
  4. Paunov A
  5. Kean H
  6. Norman-Haignere SV
  7. Fedorenko E
  Preserved functional organization of auditory cortex in two individuals missing one temporal lobe from infancy.; iScience; Vol 27(9), pp. 110548. 2024 Jul 22.
• 1. Skrill D
  2. Norman-Haignere SV
  Large language models transition from integrating across position-yoked, exponential windows to structure-yoked, power-law windows.; Advances in neural information processing systems; Vol 36, pp. 638-654. 2023 Dec.
• 1. Chen X
  2. Affourtit J
  3. Ryskin R
  4. Regev TI
  5. Norman-Haignere S
  6. Jouravlev O
  7. Malik-Moraleda S
  8. Kean H
  9. Varley R
  10. Fedorenko E
  The human language system, including its inferior frontal component in "Broca's area," does not support music perception.; Cerebral cortex (New York, N.Y. : 1991); Vol 33(12), pp. 7904-7929. 2023 Jun 08.
• 1. Kosakowski HL
  2. Norman-Haignere S
  3. Mynick A
  4. Takahashi A
  5. Saxe R
  6. Kanwisher N
  Preliminary evidence for selective cortical responses to music in one-month-old infants.; Developmental science; Vol 26(5), pp. e13387. 2023 Mar 23.
• 1. Norman-Haignere SV
  2. Feather J
  3. Boebinger D
  4. Brunner P
  5. Ritaccio A
  6. McDermott JH
  7. Schalk G
  8. Kanwisher N
  A neural population selective for song in human auditory cortex.; Current biology : CB; Vol 32(6), pp. 1454-1455. 2022 Mar 28.
• 1. Norman-Haignere SV
  2. Long LK
  3. Devinsky O
  4. Doyle W
  5. Irobunda I
  6. Merricks EM
  7. Feldstein NA
  8. McKhann GM
  9. Schevon CA
  10. Flinker A
  11. Mesgarani N
  Multiscale temporal integration organizes hierarchical computation in human auditory cortex.; Nature human behaviour. 2022 Feb 10.
• 1. Keshishian M
  2. Norman-Haignere SV
  3. Mesgarani N
  Understanding Adaptive, Multiscale Temporal Integration In Deep Speech Recognition Systems.; Advances in neural information processing systems; Vol 34, pp. 24455-24467. 2021 Dec.
• 1. Landemard A
  2. Bimbard C
  3. Demené C
  4. Shamma S
  5. Norman-Haignere S
  6. Boubenec Y
  Distinct higher-order representations of natural sounds in human and ferret auditory cortex.; eLife; Vol 10. 2021 Nov 18.
• 1. Traer J
  2. Norman-Haignere SV
  3. McDermott JH
  Causal inference in environmental sound recognition.; Cognition; Vol 214. 2021 Sep.
• 1. Boebinger D
  2. Norman-Haignere SV
  3. McDermott JH
  4. Kanwisher N
  Music-selective neural populations arise without musical training.; Journal of neurophysiology; Vol 125(6). 2021 Jun 01.
• 1. Norman-Haignere SV
  2. Kanwisher N
  3. McDermott JH
  4. Conway BR
  Divergence in the functional organization of human and macaque auditory cortex revealed by fMRI responses to harmonic tones.; Nature neuroscience; Vol 22(7). 2019 Jul.
• 1. Albouy P
  2. Caclin A
  3. Norman-Haignere SV
  4. Lévêque Y
  5. Peretz I
  6. Tillmann B
  7. Zatorre RJ
  Decoding Task-Related Functional Brain Imaging Data to Identify Developmental Disorders: The Case of Congenital Amusia.; Frontiers in neuroscience; Vol 13. 2019.
• 1. Kell AJE
  2. Yamins DLK
  3. Shook EN
  4. Norman-Haignere SV
  5. McDermott JH
  A Task-Optimized Neural Network Replicates Human Auditory Behavior, Predicts Brain Responses, and Reveals a Cortical Processing Hierarchy.; Neuron; Vol 98(3). 2018 May 02.
• 1. Norman-Haignere SV
  2. McDermott JH
  Neural responses to natural and model-matched stimuli reveal distinct computations in primary and nonprimary auditory cortex.; PLoS biology; Vol 16(12). 2018 Jan.
• 1. Norman-Haignere S
  2. McDermott JH
  Distortion products in auditory fMRI research: Measurements and solutions.; NeuroImage; Vol 129. 2016 Apr 01.
• 1. Norman-Haignere SV
  2. Albouy P
  3. Caclin A
  4. McDermott JH
  5. Kanwisher NG
  6. Tillmann B
  Pitch-Responsive Cortical Regions in Congenital Amusia.; The Journal of neuroscience : the official journal of the Society for Neuroscience; Vol 36(10). 2016 Mar 09.
• 1. Norman-Haignere S
  2. Kanwisher NG
  3. McDermott JH
  Distinct Cortical Pathways for Music and Speech Revealed by Hypothesis-Free Voxel Decomposition.; Neuron; Vol 88(6). 2015 Dec 16.
• 1. Norman-Haignere S
  2. Kanwisher N
  3. McDermott JH
  Cortical pitch regions in humans respond primarily to resolved harmonics and are located in specific tonotopic regions of anterior auditory cortex.; The Journal of neuroscience : the official journal of the Society for Neuroscience; Vol 33(50). 2013 Dec 11.
• 1. Fedorenko E
  2. McDermott JH
  3. Norman-Haignere S
  4. Kanwisher N
  Sensitivity to musical structure in the human brain.; Journal of neurophysiology; Vol 108(12). 2012 Dec.
• 1. Norman-Haignere SV
  2. McCarthy G
  3. Chun MM
  4. Turk-Browne NB
  Category-selective background connectivity in ventral visual cortex.; Cerebral cortex (New York, N.Y. : 1991); Vol 22(2). 2012 Feb.
• 1. Turk-Browne NB
  2. Norman-Haignere SV
  3. McCarthy G
  Face-Specific Resting Functional Connectivity between the Fusiform Gyrus and Posterior Superior Temporal Sulcus.; Frontiers in human neuroscience; Vol 4. 2010.