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乌贼虹彩的表达取决于环境亮度和外周神经节的控制。

Expression of squid iridescence depends on environmental luminance and peripheral ganglion control.

作者信息

Gonzalez-Bellido P T, Wardill T J, Buresch K C, Ulmer K M, Hanlon R T

机构信息

Program in Sensory Physiology and Behavior, Marine Biological Laboratory, 7 MBL Street, Woods Hole, MA 02543, USA.

出版信息

J Exp Biol. 2014 Mar 15;217(Pt 6):850-8. doi: 10.1242/jeb.091884.

DOI:10.1242/jeb.091884
PMID:24622892
Abstract

Squid display impressive changes in body coloration that are afforded by two types of dynamic skin elements: structural iridophores (which produce iridescence) and pigmented chromatophores. Both color elements are neurally controlled, but nothing is known about the iridescence circuit, or the environmental cues, that elicit iridescence expression. To tackle this knowledge gap, we performed denervation, electrical stimulation and behavioral experiments using the long-fin squid, Doryteuthis pealeii. We show that while the pigmentary and iridescence circuits originate in the brain, they are wired differently in the periphery: (1) the iridescence signals are routed through a peripheral center called the stellate ganglion and (2) the iridescence motor neurons likely originate within this ganglion (as revealed by nerve fluorescence dye fills). Cutting the inputs to the stellate ganglion that descend from the brain shifts highly reflective iridophores into a transparent state. Taken together, these findings suggest that although brain commands are necessary for expression of iridescence, integration with peripheral information in the stellate ganglion could modulate the final output. We also demonstrate that squid change their iridescence brightness in response to environmental luminance; such changes are robust but slow (minutes to hours). The squid's ability to alter its iridescence levels may improve camouflage under different lighting intensities.

摘要

鱿鱼的身体颜色变化令人印象深刻,这是由两种动态皮肤元素实现的:结构性虹彩细胞(产生虹彩)和色素性色素细胞。这两种颜色元素都受神经控制,但关于引发虹彩表达的虹彩回路或环境线索,我们却一无所知。为了填补这一知识空白,我们使用长鳍鱿鱼(Doryteuthis pealeii)进行了去神经、电刺激和行为实验。我们发现,虽然色素回路和虹彩回路都起源于大脑,但它们在周围神经系统中的连接方式不同:(1)虹彩信号通过一个称为星状神经节的外周中心进行传递;(2)虹彩运动神经元可能起源于这个神经节内(神经荧光染料填充实验揭示了这一点)。切断从大脑下行至星状神经节的输入,会使高度反光的虹彩细胞转变为透明状态。综上所述,这些发现表明,虽然大脑指令对于虹彩表达是必要的,但与星状神经节中的外周信息整合可能会调节最终输出。我们还证明,鱿鱼会根据环境亮度改变其虹彩亮度;这种变化很稳定,但速度较慢(从几分钟到几小时)。鱿鱼改变其虹彩水平的能力可能会在不同光照强度下改善伪装效果。

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