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俄勒冈招潮蟹(Hemigrapsus oregonensis)嗅觉触角的个体发育变化在其生长过程中维持嗅觉功能。

Ontogenetic changes in the olfactory antennules of the shore crab, Hemigrapsus oregonensis, maintain sniffing function during growth.

作者信息

Waldrop Lindsay D, Hann Miranda, Henry Amy K, Kim Agnes, Punjabi Ayesha, Koehl M A R

机构信息

Department of Mathematics, University of North Carolina, CB# 3250, Chapel Hill, NC 27599-3250, USA Department of Integrative Biology, University of California, Berkeley, CA, USA

Department of Integrative Biology, University of California, Berkeley, CA, USA.

出版信息

J R Soc Interface. 2015 Jan 6;12(102):20141077. doi: 10.1098/rsif.2014.1077.

Abstract

Malacostracan crustaceans capture odours using arrays of chemosensory hairs (aesthetascs) on antennules. Lobsters and stomatopods have sparse aesthetascs on long antennules that flick with a rapid downstroke when water flows between the aesthetascs and a slow return stroke when water is trapped within the array (sniffing). Changes in velocity only cause big differences in flow through an array in a critical range of hair size, spacing and speed. Crabs have short antennules bearing dense arrays of flexible aesthetascs that splay apart during downstroke and clump together during return. Can crabs sniff, and when during ontogeny are they big enough to sniff? Antennules of Hemigrapsus oregonensis representing an ontogenetic series from small juveniles to adults were used to design dynamically scaled physical models. Particle image velocimetry quantified fluid flow through each array and showed that even very small crabs capture a new water sample in their arrays during the downstroke and retain that sample during return stroke. Comparison with isometrically scaled antennules suggests that reduction in aesthetasc flexural stiffness during ontogeny, in addition to increase in aesthetasc number and decrease in relative size, maintain sniffing as crabs grow. Sniffing performance of intermediate-sized juveniles was worse than for smaller and larger crabs.

摘要

软甲亚纲甲壳动物利用小触角上的化学感应毛(嗅觉刚毛)阵列来捕捉气味。龙虾和口足类动物在长长的小触角上有稀疏的嗅觉刚毛,当水流经嗅觉刚毛时,触角会快速向下摆动,而当水被困在阵列中时则缓慢返回摆动(嗅探)。速度变化只会在毛发大小、间距和速度的临界范围内,导致流经阵列的水流产生很大差异。螃蟹的小触角较短,上面有密集排列的柔韧嗅觉刚毛,向下摆动时会张开,返回时会聚集在一起。螃蟹能嗅探吗?在个体发育过程中,它们什么时候大到足以进行嗅探?以代表从小幼体到成体个体发育序列的俄勒冈招潮蟹的小触角为基础,设计了动态缩放的物理模型。粒子图像测速技术对通过每个阵列的流体流动进行了量化,结果表明,即使是非常小的螃蟹,在向下摆动时也能在其阵列中捕获一个新的水样,并在返回摆动时保留该水样。与等比例缩放的小触角相比表明,在个体发育过程中,除了嗅觉刚毛数量增加和相对尺寸减小外,嗅觉刚毛弯曲刚度的降低也能使螃蟹在生长过程中保持嗅探能力。中等大小幼体的嗅探性能比更小和更大的螃蟹要差。

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