International Journal of Offshore and Polar Engineering · 2010 · 32 citations · 22 references
EngineeringRobotics EngineeringMarine RoboticsRoboticsUnderwater RoboticsFish LocomotionMarine HydrodynamicsFish Swimming KinematicsFish-inspired RoboticsFish-inspired RobotsHydrodynamic ModelingHydrodynamics Of Fish SwimmingHydrodynamics Of SwimmingStrouhal NumberSwimming Mechanics
Efficient swimming of biologically carangiform robotic fish has been investigated by using a novel experimental method. The laboratory robotic fish model, which follows an exact replica of Saithe, is self-propelled on a servo towing system. The forward towing speed is determined by the fluid force acting on the robotic fish, as the fish undulates its body in the water. The importance of the self-propelled method, which allows for simultaneous measurement of internal and external forces on the robotic fish, has been demonstrated in the hydrodynamic experiment. The hydrodynamic result shows that the optimal efficient swimming pattern of the robotic fish is found at a parametric value where Strouhal number (St) and body wave
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Oscillating foils of high propulsive efficiency
Jamie M. Anderson, Knut Streitlien, David Barrett et al. · Journal of Fluid Mechanics · 1998 · 1.3K citations
Note on the swimming of slender fish
M. J. Lighthill · Journal of Fluid Mechanics · 1960 · 1.2K citations