Rotating Fluids in Engineering and Science
Invaluable for engineers and scientists whose projects require a knowledge of the theory. Part I reviews basic fluid mechanics. Part II introduces concepts, theories, and equations specific to rotating fluids, and Part III presents numerous practical applications of the theory, in fields ranging from centrifuges to aerodynamics. "Highly recommended." — Choice.
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Mass and Momentum Conservation
Potential Inviscid Flow
Boundary Layers and Turbulence
Rotating Coordinate Systems
Rotation Vorticity and Circulation
Vorticity as the Variable
Wings Lift and Drag
Liquids in Precessing Spacecraft
The Earth Sun and Moon
Intense Atmospheric Vortices
aircraft analysis and/or angular momentum angular velocity applications approximately assumed atmospheric axis bottom boundary layer centrifugal centripetal acceleration Chapter circular circulation component computed constant convective coordinate system Coriolis phenomena Couette flow cylinder density diameter dimensionless disk dissipation earth Ekman Ekman spiral energy estimate example flow field flow rate fluid element force frame function gyres hurricane illustrates inertial space inertial waves inviscid vortex laminar flow liquid core mass mechanism motion moving Navier-Stokes equations nonrotating oceanic orbit oscillation parameters perturbations precession pressure gradient problem Project pump radial radius Rayleigh instability region relative to inertial Reynolds number rigid Rossby Rossby waves rotating fluid rotor secondary flows shear stress shown in Figure solution speed spin stationary Stokes's streamlines surface swirl tangential velocity tank term theorem tornado transverse turbine turbulent typical vanes variables vector velocity potential viscous vortex tube vorticity wall wave wind wing zero