Passive and Active Flow Control by Swimming Fishes and Mammals

By Frank E. Fish, George V. Lauder. 2006

817 citations recorded by the source corpus.

Subfields: Aerospace Engineering, Nature and Landscape Conservation

View Paper: https://www.semanticscholar.org/paper/86c7e187de312164b0d3aa7b76468cc26c2673bc

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In Aerospace Engineering

In Nature and Landscape Conservation

Citations in the corpus

Modeling of Biomimetic Robotic Fish Propelled by An Ionic Polymer–Metal Composite Caudal Fin (2010, background): “) are ultimate examples of superior swimmers as a result of millions of years of evolution, endowed with a variety of morphological and structural features for moving through water with speed, agility, and efficiency [1], [2].”
Three-dimensional simulation of a flapping flag in a uniform flow (2010, background): “Even for active flapping motions such as those of swimming and flying animals, the flapping frequency cannot be selected arbitrarily (Triantafyllou, † Email address for correspondence: hjsung@kaist.ac.kr Triantafyllou & Yue 2000; Fish & Lauder 2006).”
Hydrodynamic Performance of Aquatic Flapping: Efficiency of Underwater Flight in the Manta (2016, background): “Both approaches show a set of vortex rings formed from each fin, instead of one set of vortex rings shed from the entire animal as is the case for caudal fin swimmers [47].”
Hydrodynamics of Undulatory Propulsion (2005, background): “Tytell and Lauder (2004) and Fish and Lauder (2005) suggested that the tails of such fishes function as a discrete propeller, separate anatomically and functionally from the major areas incurring drag during undulatory locomotion.”
Performance and mechanism of sinusoidal leading edge serrations for the reduction of turbulence–aerofoil interaction noise (2017, background): “A number of researchers (Fish & Lauder 2006; Van Nierop, Alben & Brenner 2008; Fish et al. 2011; Zhang et al. 2013) have investigated the mechanism by which stall can be delayed by the introduction of serrations at the aerofoil leading edge.”
Optimal flexibility of a flapping appendage in an inviscid fluid (2008, background): “(Vandenberghe et al. 2004; Alben & Shelley 2005; Childress, Vandenberghe & Zhang 2006; Fish & Lauder 2006; Bergou, Xu & Wang 2007).”
Fish biorobotics: kinematics and hydrodynamics of self-propulsion (2007, methodology): “Major results of these efforts include a much more complete understanding of how animals moving in the water use their muscles to power movement, detailed descriptions of body and appendage motion during propulsion, and experimental and computational analyses of fluid movement and the attendant forc”
Quantitative Thrust Efficiency of a Self-Propulsive Robotic Fish: Experimental Method and Hydrodynamic Investigation (2013, background): “However, recent biological findings indicate that the caudal fin undergoes complex kinematics independent of the body in mackerel and tuna [32], [34], which will naturally affect the thrust performance.”