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Hemispheric asymmetry in the fusiform gyrus distinguishes Homo sapiens from chimpanzees
While the neural basis for linguistic communication has been linked to brain structural asymmetries found only in humans (wider connective spacing is found between the minicolumns of neurons in the left hemisphere language areas), it is unknown if the opposite microanatomical asymmetry exists in the...
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Published in: | Brain Structure and Function 2013-11, Vol.218 (6), p.1391-1405 |
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description | While the neural basis for linguistic communication has been linked to brain structural asymmetries found only in humans (wider connective spacing is found between the minicolumns of neurons in the left hemisphere language areas), it is unknown if the opposite microanatomical asymmetry exists in the fusiform gyrus which typically supports a right hemisphere bias for face processing. Unlike language, face processing is an ability shared with chimpanzees and, as Darwin observed, the widespread use of facial expressions in animal communication suggests a biological basis. We tested the principle that minicolumn asymmetry follows typical functional dominance in humans, and tested its evolutionary continuity, by measuring minicolumn width, neuronal size and density in the mid-fusiform cortex in 14 humans and 14 chimpanzees. We found that microanatomical asymmetry distinguishes humans from chimpanzees although the direction of asymmetry is the same as in language areas—the right hemisphere contained narrower minicolumns and smaller pyramidal neurons, as in auditory language areas. Uniformly narrow minicolumns in chimpanzees and in the human right hemisphere are consistent with mechanistic predictions supporting the apparent bias towards holistic face processing. Wider minicolumns and larger neurons in the human left hemisphere may be consistent with a language function such as word-form processing. Microanatomical asymmetry in the neocortex therefore provides a correlate of hemispheric specialisation. |
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Unlike language, face processing is an ability shared with chimpanzees and, as Darwin observed, the widespread use of facial expressions in animal communication suggests a biological basis. We tested the principle that minicolumn asymmetry follows typical functional dominance in humans, and tested its evolutionary continuity, by measuring minicolumn width, neuronal size and density in the mid-fusiform cortex in 14 humans and 14 chimpanzees. We found that microanatomical asymmetry distinguishes humans from chimpanzees although the direction of asymmetry is the same as in language areas—the right hemisphere contained narrower minicolumns and smaller pyramidal neurons, as in auditory language areas. Uniformly narrow minicolumns in chimpanzees and in the human right hemisphere are consistent with mechanistic predictions supporting the apparent bias towards holistic face processing. Wider minicolumns and larger neurons in the human left hemisphere may be consistent with a language function such as word-form processing. 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Unlike language, face processing is an ability shared with chimpanzees and, as Darwin observed, the widespread use of facial expressions in animal communication suggests a biological basis. We tested the principle that minicolumn asymmetry follows typical functional dominance in humans, and tested its evolutionary continuity, by measuring minicolumn width, neuronal size and density in the mid-fusiform cortex in 14 humans and 14 chimpanzees. We found that microanatomical asymmetry distinguishes humans from chimpanzees although the direction of asymmetry is the same as in language areas—the right hemisphere contained narrower minicolumns and smaller pyramidal neurons, as in auditory language areas. Uniformly narrow minicolumns in chimpanzees and in the human right hemisphere are consistent with mechanistic predictions supporting the apparent bias towards holistic face processing. Wider minicolumns and larger neurons in the human left hemisphere may be consistent with a language function such as word-form processing. 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Academic</collection><jtitle>Brain Structure and Function</jtitle></facets><delivery><delcategory>Remote Search Resource</delcategory><fulltext>fulltext</fulltext></delivery><addata><au>Chance, Steven A.</au><au>Sawyer, Eva K.</au><au>Clover, Linda M.</au><au>Wicinski, Bridget</au><au>Hof, Patrick R.</au><au>Crow, Timothy J.</au><format>journal</format><genre>article</genre><ristype>JOUR</ristype><atitle>Hemispheric asymmetry in the fusiform gyrus distinguishes Homo sapiens from chimpanzees</atitle><jtitle>Brain Structure and Function</jtitle><stitle>Brain Struct Funct</stitle><addtitle>Brain Struct Funct</addtitle><date>2013-11-01</date><risdate>2013</risdate><volume>218</volume><issue>6</issue><spage>1391</spage><epage>1405</epage><pages>1391-1405</pages><issn>1863-2653</issn><eissn>1863-2661</eissn><eissn>0340-2061</eissn><abstract>While the neural basis for linguistic communication has been linked to brain structural asymmetries found only in humans (wider connective spacing is found between the minicolumns of neurons in the left hemisphere language areas), it is unknown if the opposite microanatomical asymmetry exists in the fusiform gyrus which typically supports a right hemisphere bias for face processing. Unlike language, face processing is an ability shared with chimpanzees and, as Darwin observed, the widespread use of facial expressions in animal communication suggests a biological basis. We tested the principle that minicolumn asymmetry follows typical functional dominance in humans, and tested its evolutionary continuity, by measuring minicolumn width, neuronal size and density in the mid-fusiform cortex in 14 humans and 14 chimpanzees. We found that microanatomical asymmetry distinguishes humans from chimpanzees although the direction of asymmetry is the same as in language areas—the right hemisphere contained narrower minicolumns and smaller pyramidal neurons, as in auditory language areas. Uniformly narrow minicolumns in chimpanzees and in the human right hemisphere are consistent with mechanistic predictions supporting the apparent bias towards holistic face processing. 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subjects | Adolescent Adult Aged Analysis of Variance Animals Asymmetry Biomedical and Life Sciences Biomedicine Brain research Cell Biology Child Child, Preschool Dominance, Cerebral - physiology Evolution & development Face Female Humans Image Processing, Computer-Assisted Male Middle Aged Neurology Neurosciences Occipital Lobe - anatomy & histology Occipital Lobe - cytology Occipital Lobe - physiology Original Article Pan troglodytes Pan troglodytes - anatomy & histology Primates Recognition (Psychology) - physiology Species Specificity Temporal Lobe - anatomy & histology Temporal Lobe - cytology Temporal Lobe - physiology |
title | Hemispheric asymmetry in the fusiform gyrus distinguishes Homo sapiens from chimpanzees |
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