A review of fish swimming mechanics and behaviour in altered flows

By James C. Liao. Philosophical Transactions of the Royal Society B: Biological Sciences, 2007

820 citations recorded by the source corpus.

Subfields: Aerospace Engineering, Nature and Landscape Conservation

View Paper: https://www.semanticscholar.org/paper/bad98be9b8e3d029ca3bf9fbf4a85c85190ad665

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In Aerospace Engineering

In Nature and Landscape Conservation

Citations in the corpus

Flow interactions lead to orderly formations of flapping wings in forward flight (2016, background): “Animal schools and flocks are archetypes of such high-Reynolds-number collective locomotion, and fluid dynamical studies have focused on the role of flows in setting group structure and imparting collective advantages such as energetic savings [7,13].”
The increased efficiency of fish swimming in a school (2013, background): “The Froude efficiency of fish swimming in a (not too dense) phalanx is higher than when swimming alone which is in line with the channelling effect (Weihs 1973; Webb 1993; Fish 1999; Liao 2007) (Fig.”
Effectiveness monitoring of fish passage facilities: historical trends, geographic patterns and future directions (2010, background): “Lastly, basic research concerning migration cues, fish behaviour and swimming mechanics in complex flows (e.g. Liao 2007) will greatly benefit fishway science.”
Biomimetic survival hydrodynamics and flow sensing (2015, background): “The lateral line is known to help fish perform complex sensing tasks, such as detecting threats to spark C-starts, as well as assisting in Kármán gaiting through vortex detection (Liao 2006, 2007).”
Biophysical interactions in the plankton: A cross‐scale review (2012, background): “Schooling krill, for example, respond to the flow fields of neighbors by beating swimming appendages in synchrony (Patria and Wiese 2004) and may gain a hydrodynamic advantage from neighbors via flow refuging (exploiting regions of slower flow) or vortex capture (gaining energy from vortex rings gen”
Confusion reigns? A review of marine megafauna interactions with tidal-stream environments (2015, background): “Strong turbulence provides a mechanism to confuse or disorient prey and imposes a metabolic cost as prey try to maintain orientation (Zamon 2002, Enders et al. 2003, Liao 2007).”
Hydrodynamics of flexible fins propelled in tandem, diagonal, triangular and diamond configurations (2018, background): “…formed from a stationary object is somewhat controllable, which has enabled the elucidation of the mechanisms underlying the hydrodynamic interactions with surrounding organisms (Liao et al. 2003a,b; Ulrike 2003; Liao 2004, 2007; Beal et al. 2006; Eldredge & Pisani 2008; Park, Kim & Sung 2016).”
Undulatory and oscillatory swimming (2019, background): “…and mammals and the mechanics and control of swimming, are considered by Webb (1975), Fish & Rohr (1999), Colgate & Lynch (2004), Fish & Lauder (2006) and Liao (2007), respectively, and Lauder & Tytell (2005) present a particularly insightful review of the hydrodynamics of undulatory propulsion.”