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单眼剥夺的生理效应及其在猴子视觉皮层中的逆转

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

作者信息

Blakemore C, Garey L J, Vital-Durand F

出版信息

J Physiol. 1978 Oct;283:223-62. doi: 10.1113/jphysiol.1978.sp012498.

DOI:10.1113/jphysiol.1978.sp012498
PMID:102764
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC1282775/
Abstract
  1. 1127 single units were recorded during oblique penetrations in area 17 of one normal, three monocularly deprived and four reverse sutured monkeys. 2. In all animals most cells outside layer IV c were orientation-selective, and preferred orientation usually shifted from cell to cell in a regular progressive sequence. 3. The presence in layer IV c of non-oriented, monocularly driven units, organized in alternating right-eye and left-eye 'stripes' (LeVay, Hubel & Wiesel, 1975) was confirmed. 4. Early monocular deprivation (2--5 1/2 weeks) caused a strong shift of ocular dominance towards the non-deprived eye. However, even outside layer IV c, neural background and some isolated cells could still be driven from the deprived eye in regularly spaced, narrow columnar regions. In layer IV c the non-deprived eye's stripes were almost three times wider, on average, than the deprived. 5. Later monocular deprivation (11--16 months) had no detectable influence on layer IV c but seemed to cause a small shift in ocular dominance outside IV c. Deprivation for 6 1/4 months in an adult had no such effect. 6. After early reverse suturing (at 5 1/2 weeks) the originally deprived eye gained dominance over cells outside layer IV c just as complete as that originally exercised by the eye that was first non-deprived. 7. The later reverse suturing was delayed, the less effective was recapture by the originally deprived eye. Reversal at 8 weeks led to roughly equal numbers of cells being dominated by each eye; fewer cells became dominated by the newly open eye after reverse suturing at 9 weeks and most of them were non-oriented; reversal at 38 1/2 weeks had no effect. 8. Binocular cells, though rare in reverse sutured animals, always had very similar preferred orientations in the two eyes. The columnar sequences of preferred orientation were not interrupted at the borders of ocular dominance columns. 9. Even within layer IV c there was evidence for re-expansion of physiologically determined ocular dominance stripes. After early reverse suture, stripes for the two eyes became roughly equal in width. Possible mechanisms for these changes are discussed.
摘要
  1. 在一只正常猴、三只单眼剥夺猴和四只反转缝合猴的17区进行斜向穿刺时,记录了1127个单细胞。2. 在所有动物中,IV c层以外的大多数细胞具有方向选择性,且偏好方向通常在细胞间以规则的渐进序列变化。3. 证实了IV c层中存在非定向的、单眼驱动的细胞,它们以右眼和左眼交替的“条纹”形式排列(LeVay、Hubel和Wiesel,1975年)。4. 早期单眼剥夺(2至5.5周)导致眼优势强烈偏向未剥夺眼。然而,即使在IV c层以外,神经背景和一些孤立细胞在规则间隔的狭窄柱状区域仍可被剥夺眼驱动。在IV c层,未剥夺眼的条纹平均宽度几乎是剥夺眼的三倍。5. 后期单眼剥夺(11至16个月)对IV c层没有可检测到的影响,但似乎导致IV c层以外的眼优势有小的偏移。成年后剥夺6.25个月没有这种效果。6. 早期反转缝合(5.5周时)后,最初被剥夺的眼在IV c层以外的细胞上获得的优势与最初未被剥夺的眼所行使的优势一样完全。7. 后期反转缝合延迟的时间越长,最初被剥夺的眼重新获得优势的效果就越差。8周时反转导致每只眼支配的细胞数量大致相等;9周时反转缝合后,由新睁开的眼支配的细胞较少,且大多数是非定向的;38.5周时反转没有效果。8. 双眼细胞在反转缝合的动物中虽然很少见,但两眼的偏好方向总是非常相似。偏好方向的柱状序列在眼优势柱的边界处没有中断。9. 即使在IV c层内也有证据表明生理上确定的眼优势条纹会重新扩展。早期反转缝合后,两眼的条纹宽度大致相等。讨论了这些变化的可能机制。
https://cdn.ncbi.nlm.nih.gov/pmc/blobs/a959/1282775/a13a0ba834ce/jphysiol00761-0267-a.jpg
https://cdn.ncbi.nlm.nih.gov/pmc/blobs/a959/1282775/a13a0ba834ce/jphysiol00761-0267-a.jpg
https://cdn.ncbi.nlm.nih.gov/pmc/blobs/a959/1282775/a13a0ba834ce/jphysiol00761-0267-a.jpg

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