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体型对远洋集群鱼类间歇性游动的影响。

The influence of body size on the intermittent locomotion of a pelagic schooling fish.

作者信息

Noda Takuji, Fujioka Ko, Fukuda Hiromu, Mitamura Hiromichi, Ichikawa Kotaro, Arai Nobuaki

机构信息

Graduate School of Informatics, Kyoto University, Kyoto 606-8501, Japan

National Research Institute of Far Seas Fisheries, FRA, Shizuoka 424-8633, Japan.

出版信息

Proc Biol Sci. 2016 Jun 15;283(1832). doi: 10.1098/rspb.2015.3019.

Abstract

There is a potential trade-off between grouping and the optimizing of the energetic efficiency of individual locomotion. Although intermittent locomotion, e.g. glide and upward swimming (GAU), can reduce the cost of locomotion at the individual level, the link between the optimization of individual intermittent locomotion and the behavioural synchronization in a group, especially among members with different sizes, is unknown. Here, we continuously monitored the schooling behaviour of a negatively buoyant fish, Pacific bluefin tuna (N = 10; 21.0 ∼ 24.5 cm), for 24 h in an open-sea net cage using accelerometry. All the fish repeated GAU during the recording periods. Although the GAU synchrony was maintained at high levels (overall mean = 0.62 for the cross-correlation coefficient of the GAU timings), larger fish glided for a longer duration per glide and more frequently than smaller fish. Similar-sized pairs showed significantly higher GAU synchrony than differently sized pairs. Our accelerometry results and the simulation based on hydrodynamic theory indicated that the advantage of intermittent locomotion in energy savings may not be fully optimized for smaller animals in a group when faced with the maintenance of group cohesion, suggesting that size assortative shoaling would be advantageous.

摘要

在群体形成与个体游动能量效率的优化之间存在潜在的权衡。尽管间歇性游动,如滑行和向上游动(GAU),在个体层面可以降低游动成本,但个体间歇性游动的优化与群体中行为同步之间的联系,尤其是在不同大小成员之间,尚不清楚。在这里,我们使用加速度计在公海网箱中对10条负浮力鱼类太平洋蓝鳍金枪鱼(体长21.0 ∼ 24.5厘米)的集群行为进行了24小时的连续监测。在记录期间,所有的鱼都重复进行GAU。尽管GAU同步性保持在较高水平(GAU时间的互相关系数总体平均值为0.62),但较大的鱼每次滑行的持续时间更长,且比较小的鱼更频繁。体型相似的鱼对显示出比体型不同的鱼对更高的GAU同步性。我们的加速度计结果和基于流体动力学理论的模拟表明,当面临维持群体凝聚力时,群体中较小的动物可能无法充分优化间歇性游动在节能方面的优势,这表明按大小分类集群可能具有优势。

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