Neural Evidence for Speech Perception Mirroring Speech Production
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초록
The primary objective of the present study is to explore the relationship between speech perception and production by investigating how differently pseudoword stimuli are perceived and produced in the brain using functional Magnetic Resonance Imaging (fMRI) technology. Specifically, this study was designed to test if either the Motor Theory or auditory theories of speech perception are valid by determining whether or not the motor-related areas critical for expressive language (e.g. the premotor cortex) are activated during a passive listening task. More of the premotor cortex was involved not only in the perception of pseudoword stimuli but also in the production of the same stimuli. The data show that receptive language is based on articulatory gestures rather than auditory sounds per se, supporting the Motor Theory of speech perception. Additionally, the results of this study identified articulatory-phonological brain network linked to speech production that consists of the premotor cortex (BA 6), the superior temporal gyrus (STG), the cerebellum, the basal ganglia and the superior frontal gyrus (BA 9).
Abstract
The primary objective of the present study is to explore the relationship between speech perception and production by investigating how differently pseudoword stimuli are perceived and produced in the brain using functional Magnetic Resonance Imaging (fMRI) technology. Specifically, this study was designed to test if either the Motor Theory or auditory theories of speech perception are valid by determining whether or not the motor-related areas critical for expressive language (e.g. the premotor cortex) are activated during a passive listening task. More of the premotor cortex was involved not only in the perception of pseudoword stimuli but also in the production of the same stimuli. The data show that receptive language is based on articulatory gestures rather than auditory sounds per se, supporting the Motor Theory of speech perception. Additionally, the results of this study identified articulatory-phonological brain network linked to speech production that consists of the premotor cortex (BA 6), the superior temporal gyrus (STG), the cerebellum, the basal ganglia and the superior frontal gyrus (BA 9).
참고문헌 (40)
- Ashburner, J, "Unified Segmentation", Neuroimage, 26(3), pp.839~851 (2005)
- Benson, R. R, "Phonetic Processing Areas Revealed by Sinewave Speech and Acoustically Similar Non-speech", Neuroimage, 15(1), pp.342~353 (2006)
- Blumstein, S. E, "Phonological Factors in Auditory Comprehension in Aphasia", Neuropsychologia, 15, pp.19~30 (1977)
- Boecker, H, "Role of the Human Rostral Supplementary Motor Area and the Basal Ganglia in Motor Sequence Control: Investigations with H2 15O PET", Journal of Neurophysiology, 79(2), pp.1070~1080 (1998)
- Boulenger, V, "Grasping Ideas with the Motor System: Semantic Somatotopy in Idiom Comprehension", Cerebral Cortex, 19(8), pp.1905~1914 (2009)
- Callan, D. E, "Phonetic Perceptual Identification by Native- and Second-language Speakers Differentially Activates Brain Regions Involved with Acoustic Phonetic Processing and those Involved with Articulatory-auditory", Orosensory Internal Models, 2004, pp.22(3), 1182~1194
- Darley, F. L, "Motor Speech Disorders" (1975), Saunders
- D’Ausilio, A, "The Motor Somatotopy of Speech Perception", Current Biology, 19(5), pp.381~385 (2009)
- Di Pellegrino, G, "Understanding Motor Events: a Neurophysiological Study", Experimental Brain Resonance, 91(1), pp.176~180 (1992)
- Diehl, R. L, "On the Objects of Speech Perception", Ecological Psychology, 1, pp.121~144 (1989)
- Edmister, W, "Improved Auditory Cortex Imaging Using Clustered Volume Acquisitions", Human Brain Mapping, 7(2), pp.89~97 (1999)
- Fadiga, L, "Corticospinal Excitability is Specifically Modulated by Motor Imagery: A Magnetic Stimulation Study", Neuropsychologia, 37(2), pp.147~158 (1999)
- Fadiga, L, "Hand Actions and Speech Representation in Broca's Area", Cortex, 42(4), pp.486~490 (2006)
- Friston, K. J, "Statistical Parametric Maps in Functional Imaging: A General Linear Approach", Human Brain Mapping, 2, pp.189~210 (1995)
- Hauk, O, "Effects of Word Length and Frequency on the Human Event-related Potential", Clinical Neurophysiology, 115(5), pp.1090~1103 (2004)
- Hickok, G, "The Role of Mirror Neurons in Speech and Language Processing", Brain and Language, 112(1), pp.1~2 (2010)
- Hickok, G, "Towards a Functional Neuroanatomy of Speech Perception", Trends in Cognitive Sciences, 4, pp.131~138 (2000)
- Hickok, G, "The Cortical Organization of Speech Processing", Nature Reviews Neuroscience, 8, pp.393~402 (2007)
- Hulvershorn, J, "Temporal Resolving Power of Spin Echo and Gradient Echo fMRI at 3T with Apparent Diffusion Coefficient Compartmentalization", Human Brain Mapping, 25(2), pp.247~258 (2005)
- Kingston, J, "The Phonetics and Phonology of Perceptually Motivated Articulatory Covariation", Language and Speech, 35, pp.99~113 (1992)
- Kluender, K. R, "A Specialization for Speech Perception?", Science, 244, pp.1530~ (1989)
- Liberman, A. M, "The Motor Theory of Speech Perception Revised", Cognition, 21, pp.1~36 (1985)
- Mayer, J, "Prosody Production and Perception: Converging Evidence from FMRI Studies", Proceedings Speech Prosody, pp.487~490 (2002)
- Meister, I. G, "The Essential Role of Premotor Cortex in Speech Perception", Current Biology, 17(19), pp.1692~1696 (2007)
- Miceli, G, "Some Aspects of Phonological Impairment in Aphasia", Brain and Language, 11, pp.159~169 (1980)
- Moineau, S, "Exploring the Processing Continuum of Single-word Comprehension in Aphasia", Journal of Speech Language and Hearing Research, 48(4), pp.884~896 (2005)
- Mottonen, R, "Motor Representations of Articulators Contribute to Categorical Perception of Speech Sounds", Journal of Neuroscience, 29(31), pp.9819~9825 (2009)
- Oldfield, R. C, "The Assessment and Analysis of Handedness: The Edinburgh Inventory", Neuropsychologia, 9, pp.97~114 (1971)
- 박해일, "Neural Correlates of the Perception of Lexical Levels in English", 언어, 36(4), pp.953~977 (2011), 한국언어학회
- Park, H, "Production of English Lexical Levels: An FMRI Study", Journal of English Linguistics, 18(2), pp.103~126 (2012)
- Park, H, "Neural Correlates in the Processing of Phoneme-level Complexity in Vowel Production", Brain and Language, 119(3), pp.158~166 (2011)
- Petersen, S, "Positron Emission Tomographic Studies of the Processing of Single Words", Journal of Cognitive Neuroscience, 1(2), pp.153~170 (1989)
- Pulvermüller, F, "Motor Cortex Maps Articulatory Features of Speech Sounds", Proceedings of the National Academy of Sciences of the United States of America, 103(20), pp.7865~7870 (2006)
- Riecker, A, "FMRI Reveals Two Distinct Cerebral Networks Subserving Speech Motor Control", Neurology, 64(4), pp.700~706 (2005)
- Sörös, P, "Clustered Functional MRI of Overt Speech Production", Neuroimage, 32(1), pp.376~387 (2006)
- Stevens, K. N, "Invariant Cues for Place of Articulation in Stop Consonants", Journal of the Acoustical Society of America, 64, pp.1358~1368 (1978)
- Stocco, A, "Conditional Routing of Information to the Cortex: A Model of the Basal Ganglia's Role in Cognitive Coordination", Psychological Review, 117(2), pp.541~574 (2010)
- Talairach, J, "Tournoux, In Co-planar Stereotaxic Atlas of the Human Brain" (1988)
- Wilson, S. M, "Listening to Speech Activates Motor Areas Involved in Speech Production", Nature Neuroscience, 7, pp.701~702 (2004)
- Wise, R, "Brain Regions Involved in Articulation", Lancet, 353(9158), pp.1057~1061 (1999)