Comparison Study of Hydrodynamic Characteristics in Different Swimming Modes of Carassius auratus

This study utilized particle image velocimetry (PIV) to analyze the kinematic and hydrodynamic characteristics of juvenile goldfish across three swimming modes: forward swimming, burst and coast, and turning. The results demonstrated that C-shaped turning exhibited the highest speed, enabling rapid and agile maneuvers for predator evasion. Meanwhile, forward swimming was optimal for sustained locomotion, and burst-and-coast swimming was suited for predatory behaviors. A vorticity analysis revealed that vorticity around the tail fin was the primary source of propulsive force, corroborating the correlation between vorticity magnitude and propulsion found in previous research. The findings emphasize the crucial role of the tail fin in swimming efficiency and performance. Future research should integrate ethology, biomechanics, and physiology to deepen the understanding of fish locomotion, potentially informing the design of efficient biomimetic underwater robots and contributing to fish conservation efforts.

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Publication Details

Journal
Fishes
Published
2024-09-21
DOI
https://doi.org/10.3390/fishes9090365
Citations
3
Primary Topic
Biomimetic flight and propulsion mechanisms
Type
article
Field-Weighted Citation Impact
3.90

Funders

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article

Comparison Study of Hydrodynamic Characteristics in Different Swimming Modes of Carassius auratus

Xinjun Chen, Xiaoshuang Huang, Xianghong Kong, Di Jing et al.
3 citations
Fishes
Biomimetic flight and propulsion mechanisms
3.90
article

Comparison Study of Hydrodynamic Characteristics in Different Swimming Modes of Carassius auratus

Xinjun Chen, Xiaoshuang Huang, Xianghong Kong, Di Jing, Bilin Liu, Ying Zhang
article en
3 citations

Abstract

This study utilized particle image velocimetry (PIV) to analyze the kinematic and hydrodynamic characteristics of juvenile goldfish across three swimming modes: forward swimming, burst and coast, and turning. The results demonstrated that C-shaped turning exhibited the highest speed, enabling rapid and agile maneuvers for predator evasion. Meanwhile, forward swimming was optimal for sustained locomotion, and burst-and-coast swimming was suited for predatory behaviors. A vorticity analysis revealed that vorticity around the tail fin was the primary source of propulsive force, corroborating the correlation between vorticity magnitude and propulsion found in previous research. The findings emphasize the crucial role of the tail fin in swimming efficiency and performance. Future research should integrate ethology, biomechanics, and physiology to deepen the understanding of fish locomotion, potentially informing the design of efficient biomimetic underwater robots and contributing to fish conservation efforts.

FishesVol. 9(9)
Ministry of Agriculture and Rural Affairs (CN), Shanghai Ocean University (CN)
National Natural Science Foundation of China, National Key Research and Development Program of China
Life below water
Openalex Percentile: Top 6%
Biomimetic flight and propulsion mechanisms
3.90
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Comparison Study of Hydrodynamic Characteristics in Different Swimming Modes of Carassius auratus — Xinjun Chen, Xiaoshuang Huang, et al. · Fishes (2024) | TGRS Research Map | TGRS