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The von Economo neurons in frontoinsular and anterior cingulate cortex in great apes and humans

Allman, John M., Tetreault, Nicole A., Hakeem, Atiya Y., Manaye, Kebreten F., Semendeferi, Katerina, Erwin, Joseph M., Park, Soyoung, Goubert, Virginie, Hof, Patrick R.·2010·Brain Structure and Function
DOI 10.1007/s00429-010-0254-0
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Image 1
CC-BY-NC · From the PDF
Fig. 2 The location of the VEN-containing regions FI and LA in MR scans of the right hemisphere of a young adult human female. LA and FI are labeled in red . a and b are lateral and medial views of a three-dimensional reconstruction of the right hemisphere. c Frontal, horizontal, and parasagittal MRI sections that intersect in FI
Fig. 2 The location of the VEN-containing regions FI and LA in MR scans of the right hemisphere of a young adult human female. LA and FI are labeled in red . a and b are lateral and medial views of a three-dimensional reconstruction of the right hemisphere. c Frontal, horizontal, and parasagittal MRI sections that intersect in FICC-BY-NC · From the PDF
Fig. 3 Distribution of the VENs in area FI in a 39-year-old male chimpanzee, a 27-year-old male gorilla, and a 1.6-year-old male human. On the left side are photomicrographs of a section through the FI region in each individual. On the right side are outlines of these sections in which the location of each VEN has been plotted. There are 354 VENs plotted in the chimpanzee, 919 in the gorilla, and 2,415 in the human. Plots were made using a 40 9 oil immersion lens and total coverage was ensured by using the stereology program StereoInvestigator. Sections were 100 l m thick. All images are
Fig. 3 Distribution of the VENs in area FI in a 39-year-old male chimpanzee, a 27-year-old male gorilla, and a 1.6-year-old male human. On the left side are photomicrographs of a section through the FI region in each individual. On the right side are outlines of these sections in which the location of each VEN has been plotted. There are 354 VENs plotted in the chimpanzee, 919 in the gorilla, and 2,415 in the human. Plots were made using a 40 9 oil immersion lens and total coverage was ensured by using the stereology program StereoInvestigator. Sections were 100 l m thick. All images areCC-BY-NC · From the PDF
Human
HumanCC-BY-NC · From the PDF
Image 5
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Image 6
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Bonobo
BonoboCC-BY-NC · From the PDF
Chimpanzee
ChimpanzeeCC-BY-NC · From the PDF
Image 9
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Image 10
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Image 11
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Fig. 8 The number of VENs increases after birth. The number of VENs in right FI in humans of different ages. VEN numbers are low in neonates and increase after birth. The 8-month-old individual examined had markedly more VENs in the right hemisphere than any other subject in this study; this might possibly be due to individual variation. The right hemisphere VEN measurement in this individual was repeated with similar results (see Table 2). The difference
Fig. 8 The number of VENs increases after birth. The number of VENs in right FI in humans of different ages. VEN numbers are low in neonates and increase after birth. The 8-month-old individual examined had markedly more VENs in the right hemisphere than any other subject in this study; this might possibly be due to individual variation. The right hemisphere VEN measurement in this individual was repeated with similar results (see Table 2). The differenceCC-BY-NC · From the PDF
Fig. 9 The ratio of the number of VENs in the right hemisphere to the number of VENs in the left hemisphere. a In post-natal humans and great apes there are consistently more VENs in FI on the right side. This ratio develops after birth. In neonates, the numbers in each hemisphere are almost equal, while in infants, juveniles, and adults there are many more VENs in the right hemisphere. When the numbers of VENs in the right and left hemispheres of post-natal subjects were compared the difference was statistically significant both with and without the 8-month-old outlier ( P = 0.0039 for all post-natal humans and P = 0.0078 without the 8-month-old subject). For post-natal apes and humans combined the hemispheric difference for FI was significant at P \ 0.0001. b The ratio of VENs in right and left LA. This ratio is less consistent than in area FI, but in almost all cases there are more VENs on the right side. When the number of VENs in the right and left hemispheres in post-natal humans was compared for LA, the result was statistically significant ( P = 0.03). If post-natal apes and humans were combined, the difference was significant at P = 0.001. Significance was determined using the Mann-Whitney test
Fig. 9 The ratio of the number of VENs in the right hemisphere to the number of VENs in the left hemisphere. a In post-natal humans and great apes there are consistently more VENs in FI on the right side. This ratio develops after birth. In neonates, the numbers in each hemisphere are almost equal, while in infants, juveniles, and adults there are many more VENs in the right hemisphere. When the numbers of VENs in the right and left hemispheres of post-natal subjects were compared the difference was statistically significant both with and without the 8-month-old outlier ( P = 0.0039 for all post-natal humans and P = 0.0078 without the 8-month-old subject). For post-natal apes and humans combined the hemispheric difference for FI was significant at P \ 0.0001. b The ratio of VENs in right and left LA. This ratio is less consistent than in area FI, but in almost all cases there are more VENs on the right side. When the number of VENs in the right and left hemispheres in post-natal humans was compared for LA, the result was statistically significant ( P = 0.03). If post-natal apes and humans were combined, the difference was significant at P = 0.001. Significance was determined using the Mann-Whitney testCC-BY-NC · From the PDF
Fig. 10 a A low-power photomicrograph of immunocytochemical staining for NMB in layer 5 neurons of area FI in a 51-year-old human male subject; note the weak staining in the other cortical layers. b Most of the stained neurons are VENs in layer 5. c NMB staining of a VEN ( white arrowhead ) and a fork cell ( black arrowhead ) in layer 5 of the same subject. The cause of death in this subject was myocardial infarction. The horizontal striations are an artifact of vibratome sectioning
Fig. 10 a A low-power photomicrograph of immunocytochemical staining for NMB in layer 5 neurons of area FI in a 51-year-old human male subject; note the weak staining in the other cortical layers. b Most of the stained neurons are VENs in layer 5. c NMB staining of a VEN ( white arrowhead ) and a fork cell ( black arrowhead ) in layer 5 of the same subject. The cause of death in this subject was myocardial infarction. The horizontal striations are an artifact of vibratome sectioningCC-BY-NC · From the PDF
Fig. 11 a A low-power photomicrograph of immunocytochemical staining for DISC1 ( brown -black ) in area FI of a 51-year-old human male subject. This section has also been counterstained for cell bodies with cresyl violet; cells labeled only by the cresyl violet stain are purple -blue rather than dark brown . Note that the VENs are strongly positive for DISC1, whereas many cells in other layers are not. Some fork cells are also DISC1 positive. b A higher power image of layer 5 illustrating that the VENs and a subset of pyramidal neurons are labeled with the antibody, whereas most pyramidal neurons are unlabeled, visible only due to the cresyl violet counterstain. The black arrowheads indicate DISC1-positive VENs; the white arrowhead indicates a VEN not labeled by the antibody to DISC1
Fig. 11 a A low-power photomicrograph of immunocytochemical staining for DISC1 ( brown -black ) in area FI of a 51-year-old human male subject. This section has also been counterstained for cell bodies with cresyl violet; cells labeled only by the cresyl violet stain are purple -blue rather than dark brown . Note that the VENs are strongly positive for DISC1, whereas many cells in other layers are not. Some fork cells are also DISC1 positive. b A higher power image of layer 5 illustrating that the VENs and a subset of pyramidal neurons are labeled with the antibody, whereas most pyramidal neurons are unlabeled, visible only due to the cresyl violet counterstain. The black arrowheads indicate DISC1-positive VENs; the white arrowhead indicates a VEN not labeled by the antibody to DISC1CC-BY-NC · From the PDF
Fig. 12 Tractography based on diffusion tensor imaging of the brain of a 27-year-old male gorilla. a The levels for the sections shown in b through l. The yellow line corresponds to the plane containing the seed voxels shown in b . This plane is at the level of the section shown in i . The tractography seeds were 1 mm cubic voxels, placed at approximately the level of the section through FI of this gorilla shown in Fig. 3. The connections for the medial seed in FI are illustrated in
Fig. 12 Tractography based on diffusion tensor imaging of the brain of a 27-year-old male gorilla. a The levels for the sections shown in b through l. The yellow line corresponds to the plane containing the seed voxels shown in b . This plane is at the level of the section shown in i . The tractography seeds were 1 mm cubic voxels, placed at approximately the level of the section through FI of this gorilla shown in Fig. 3. The connections for the medial seed in FI are illustrated inCC-BY-NC · From the PDF

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Authors
Allman, J. M., Tetreault, N. A., Hakeem, A. Y., Manaye, K. F., Semendeferi, K., Erwin, J. M., Park, S., Goubert, V., & Hof, P. R.
Venue
Brain Structure and Function
Publisher
Springer Science and Business Media LLC
Published
2010-05-29
Volume
214
Issue
5-6
Pages
495-517
ISSN
  • 1863-2653
  • 1863-2661
DOI
10.1007/s00429-010-0254-0
Cited by
354
References
21
Language
en

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Allman, J. M., Tetreault, N. A., Hakeem, A. Y., Manaye, K. F., Semendeferi, K., Erwin, J. M., Park, S., Goubert, V., & Hof, P. R. (2010). The von Economo neurons in frontoinsular and anterior cingulate cortex in great apes and humans. Brain Structure and Function. https://doi.org/10.1007/s00429-010-0254-0