Towards the yin and yang of fish locomotion: linking energetics, ecology and mechanics through field and lab approaches.

IF 2.6 2区 生物学 Q2 BIOLOGY Journal of Experimental Biology Pub Date : 2025-02-15 Epub Date: 2025-02-20 DOI:10.1242/jeb.248011
James C Liao
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Abstract

Most of our understanding of fish locomotion has focused on elementary behaviors such as steady swimming and escape responses in simple environments. As the field matures, increasing attention is being paid to transient and unsteady behaviors that characterize more complex interactions with the environment. This Commentary advocates for an ecologically relevant approach to lab studies. Specific examples have brought new understanding to the energetic consequences of fish swimming, such as (1) station holding around bluff bodies, which departs drastically from steady swimming in almost all aspects of kinematics, muscle activity and energetics, and (2) transient behaviors such as acceleration and feeding, which are critical to survival but often neglected because of challenges in measuring costs. Beyond the lab, a far richer diversity of behaviors is available when fish are given enough space and time to move. Mesocosm studies are poised to reveal new insights into fish swimming that are inaccessible in laboratory settings. Next-generation biologgers that incorporate neural recordings will usher in a new era for understanding biomechanics in the wild and open the door for a more mechanistic understanding of how changing environments affect animal movement. These advances promise to allow insights into animal locomotion in ways that will mutually complement and accelerate laboratory and field studies in the years to come.

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探讨鱼类运动的阴阳:通过实地和实验室方法将能量学、生态学和力学联系起来。
我们对鱼类运动的理解大多集中在基本行为上,如在简单环境中稳定游泳和逃跑反应。随着油田的成熟,人们越来越关注与环境更复杂相互作用的瞬态和非稳态行为。本评论提倡采用与生态学相关的方法进行实验室研究。具体的例子使人们对鱼类游泳的能量后果有了新的认识,例如:(1)站在钝体周围,这在运动学、肌肉活动和能量学的几乎所有方面都与稳定游泳有很大的不同;(2)瞬态行为,如加速和进食,这对生存至关重要,但由于测量成本的挑战而经常被忽视。在实验室之外,如果给鱼足够的空间和时间来移动,它们的行为会有更丰富的多样性。mesocosmos研究准备揭示在实验室环境中无法进入的鱼类游泳的新见解。结合神经记录的下一代生物学家将开启一个理解野外生物力学的新时代,并为更机械地理解环境变化如何影响动物运动打开大门。这些进步有望在未来几年以相互补充和加速实验室和实地研究的方式深入了解动物运动。
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来源期刊
CiteScore
5.50
自引率
10.70%
发文量
494
审稿时长
1 months
期刊介绍: Journal of Experimental Biology is the leading primary research journal in comparative physiology and publishes papers on the form and function of living organisms at all levels of biological organisation, from the molecular and subcellular to the integrated whole animal.
期刊最新文献
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