Titlebook: Swimming and Flying in Nature; Volume 2 Theodore Y.-T. Wu (Chairman),Charles J. Brokaw,Chr Book 1975 Springer Science+Business Media New Yo

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Swimming of Planktonic , Species (Copepoda, Crustacea): Pattern, Movements and Their Controlher copepods. Animals of the order Cyclopoida are between 0. 05 and 0. 3 cm long and show a very distinct jerky (hop and sink) swimming pattern, using an average of one powerstroke per second. This gives them a mean speed of 0. 1 to 0. 5 cm/sec so that their Reynolds number ranges from 1 to 50. Stor

腼腆

Hydromechanical Aspects of Fish Swimmingther with our bodies or with our machines, and we can only marvel at the ability of these creatures in the sea to attain high maximum speeds, efficiency of transportation, or special maneuvering capabilities. With increasing interest hydrodynamicists have studied the interactions of these animals wi

CLASH

Lunate-Tail Swimming Propulsionations at zero mean lift, characterizing the horizontal lunate tail of a cetacean mammal, has been investigated. These very oscillations turned through 90° to become horizontal motions of sideslip and yaw characterize the vertical lunate tails of the fast swimming Percomorphi fishes. An oscillating

娴熟

Laminar Boundary-Layer Development and Transition of Fish-Shaped Bodies of Revolution sensitive to the position of transition from laminar to turbulent flow-at least in the range of body sizes and speeds where Reynolds numbers in the order of millions are achieved. It is the purpose of this paper to examine the effect of body shape on laminar boundary-layer development, transition p

Integrate

Hydrodynamic Drag Reduction Due to Fish Slimesffective swimming by fish, through the utilization of the mucus or slime layer..The drag-reducing properties of polysaccharides and other high polymers produced by bacteria, algae, and other marine organisms are presented, and some generalizations attempted as to the nature of natural exudates insof

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