Literature DB >> 1255531

Visual cortical cells: their developmental properties in normal and dark reared kittens.

P Buisseret, M Imbert.   

Abstract

582 units were recorded in area 17 in twenty-one normally reared kittens, and fourteen dark reared ones, aged between 8 and 42 days. 2. Four classes of neurones were defined: (a) non-activable cells that cannot be excited by any peripheral stimulation; (b) non-specific cells that are sensitive to a visual stimulus moving in any direction; (c) immature cells that are preferentially excited by a rectilinear stimulus but are unselective for its precise orientation; (d) specific cells that appear to be as selective for orientation as the simple or complex cells of the adult cat. 3. 23% of the cells presenting adult characteristics of specificity in terms of directionality and orientation are present in both the normally reared and in the dark reared kittens as soon as the first visual response (12 days) appears. 4. In normally reared kittens the proportion of specific cells increases with age, while that of the non-specific cells decreases. 5. Up to 3 weeks of age there is no significant difference in the proportion of the different types of cells in the dark reared from the normal kittens. But thereafter in the dark reared kittens the specific cells tend to disappear while the non-specific cells increase in number. 6. This confirms the view that cells with some highly specific response properties of the adult visual cortical neurones, especially in relation to orientation specificity, are present in the earliest stages in the absence of all visual experience. However, visual experience is necessary to maintain and develop these specific cells after the third week of post-natal life.

Mesh:

Year:  1976        PMID: 1255531      PMCID: PMC1309261          DOI: 10.1113/jphysiol.1976.sp011293

Source DB:  PubMed          Journal:  J Physiol        ISSN: 0022-3751            Impact factor:   5.182


  7 in total

1.  Innate and environmental factors in the development of the kitten's visual cortex.

Authors:  C Blakemore; R C Van Sluyters
Journal:  J Physiol       Date:  1975-07       Impact factor: 5.182

2.  Responses of neurones in the striate cortex observed in normal and dark-reared kittens during post-natal life.

Authors:  P Buisseret; M Imbert
Journal:  J Physiol       Date:  1975-03       Impact factor: 5.182

3.  RECEPTIVE FIELDS OF CELLS IN STRIATE CORTEX OF VERY YOUNG, VISUALLY INEXPERIENCED KITTENS.

Authors:  D H HUBEL; T N WIESEL
Journal:  J Neurophysiol       Date:  1963-11       Impact factor: 2.714

4.  Receptive field characteristics and plastic properties of visual cortical cells in kittens reared with or without visual experience.

Authors:  M Imbert; P Buisseret
Journal:  Exp Brain Res       Date:  1975       Impact factor: 1.972

5.  The effect of visual experience on the development of stimulus specificity by kitten cortical neurones.

Authors:  J D Pettigrew
Journal:  J Physiol       Date:  1974-02       Impact factor: 5.182

6.  Lack of specificity of neurones in the visual cortex of young kittens.

Authors:  H B Barlow; J D Pettigrew
Journal:  J Physiol       Date:  1971-10       Impact factor: 5.182

7.  A stereotaxic apparatus for the developing kitten brain.

Authors:  G H Rose
Journal:  Physiol Behav       Date:  1970-04
  7 in total
  56 in total

Review 1.  Development of orientation preference in the mammalian visual cortex.

Authors:  B Chapman; I Gödecke; T Bonhoeffer
Journal:  J Neurobiol       Date:  1999-10

2.  Modeling LGN responses during free-viewing: a possible role of microscopic eye movements in the refinement of cortical orientation selectivity.

Authors:  M Rucci; G M Edelman; J Wray
Journal:  J Neurosci       Date:  2000-06-15       Impact factor: 6.167

3.  Structured long-range connections can provide a scaffold for orientation maps.

Authors:  H Z Shouval; D H Goldberg; J P Jones; M Beckerman; L N Cooper
Journal:  J Neurosci       Date:  2000-02-01       Impact factor: 6.167

4.  Suppression of cortical NMDA receptor function prevents development of orientation selectivity in the primary visual cortex.

Authors:  A S Ramoa; A F Mower; D Liao; S I Jafri
Journal:  J Neurosci       Date:  2001-06-15       Impact factor: 6.167

5.  The physiological effects of monocular deprivation and their reversal in the monkey's visual cortex.

Authors:  C Blakemore; L J Garey; F Vital-Durand
Journal:  J Physiol       Date:  1978-10       Impact factor: 5.182

6.  The development and activity-dependent expression of aggrecan in the cat visual cortex.

Authors:  P C Kind; F Sengpiel; C J Beaver; A Crocker-Buque; G M Kelly; R T Matthews; D E Mitchell
Journal:  Cereb Cortex       Date:  2012-02-23       Impact factor: 5.357

7.  A theory for the acquisition and loss of neuron specificity in visual cortex.

Authors:  L N Cooper; F Liberman; E Oja
Journal:  Biol Cybern       Date:  1979-06-29       Impact factor: 2.086

Review 8.  Activity-dependent development of visual receptive fields.

Authors:  Andrew Thompson; Alexandra Gribizis; Chinfei Chen; Michael C Crair
Journal:  Curr Opin Neurobiol       Date:  2017-01-11       Impact factor: 6.627

9.  Spatial distribution of inhibitory synaptic connections during development of ferret primary visual cortex.

Authors:  Bingzhong Chen; Kaoutar Boukamel; Joseph P-Y Kao; Birgit Roerig
Journal:  Exp Brain Res       Date:  2004-10-19       Impact factor: 1.972

Review 10.  Cortical plasticity and preserved function in early blindness.

Authors:  Laurent Renier; Anne G De Volder; Josef P Rauschecker
Journal:  Neurosci Biobehav Rev       Date:  2013-02-20       Impact factor: 8.989

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