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鲎光感受器中的瞬态膜脱落:自然光照下的控制机制

Transient membrane shedding in Limulus photoreceptors: control mechanisms under natural lighting.

作者信息

Chamberlain S C, Barlow R B

出版信息

J Neurosci. 1984 Nov;4(11):2792-810. doi: 10.1523/JNEUROSCI.04-11-02792.1984.

DOI:10.1523/JNEUROSCI.04-11-02792.1984
PMID:6502204
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC6564729/
Abstract

Photoreceptors of the Limulus lateral eye shed their light-sensitive membranes (rhabdoms) in a burst early each morning when the animal is maintained in natural lighting. This shedding burst produces a cloud of multivesicular bodies which coalesce and migrate away from the rhabdom. Within 24 hr, these gradually collapse to combination bodies and ultimately to lamellar bodies. Light initiates the burst of shedding. If animals are maintained in darkness beyond their normal dawn, the shedding burst is delayed until the first onset of light. We have not been able to produce a second burst of membrane shedding within one 24-hr period. Efferent optic nerve activity generated by a circadian clock in the brain primes the shedding burst. At least 3 hr of efferent activity in darkness must precede light onset to prime membrane shedding; however, the efferent fibers need not be active when the light-initiated burst occurs. Chronically blocking the efferent input to the retina abolishes the shedding burst. The burst of membrane shedding is robust and short-lived. Within 15 min of light onset the area of photosensitive membrane decreases by about 70%, and within an hour the rhabdom returns to essentially its preburst size. At other times in the diurnal light cycle, the size of the rhabdom undergoes significant variations which are not abolished by blocking the efferent input. Apparently the daily burst of shedding overlays a second cycle of membrane metabolism that is not controlled by efferent optic nerve activity.

摘要

当将鲎置于自然光照下时,其侧眼的光感受器会在每天清晨突然脱落它们的光敏膜(视杆)。这种脱落爆发会产生一团多囊泡体,这些囊泡体会合并并从视杆处迁移离开。在24小时内,这些囊泡体会逐渐塌陷为组合体,最终变为板层体。光照引发脱落爆发。如果将动物置于黑暗中超过其正常黎明时间,脱落爆发会延迟到首次光照出现时。我们未能在一个24小时周期内诱导出第二次膜脱落爆发。大脑中的昼夜节律钟产生的传出视神经活动引发了脱落爆发。在光照开始前,至少需要3小时的黑暗中的传出活动来引发膜脱落;然而,当光照引发的爆发发生时,传出纤维不必处于活动状态。长期阻断视网膜的传出输入会消除脱落爆发。膜脱落爆发强烈且短暂。在光照开始后的15分钟内,光敏膜面积减少约70%,在一小时内视杆基本上恢复到爆发前的大小。在昼夜光照周期的其他时间,视杆的大小会发生显著变化,而这种变化不会因阻断传出输入而消除。显然,每天的脱落爆发叠加了一个不受传出视神经活动控制的膜代谢的第二个周期。