Turbulent Shear Layers in Supersonic Flow [electronic resource] /
Smits, Alexander J.author.
Dussauge, Jean-Paul.author.
A good understanding of turbulent compressible flows is essential to the design and operation of high-speed vehicles. Such flows occur, for example, in the external flow over the surfaces of supersonic aircraft, and in the internal flow through the engines. Our ability to predict the aerodynamic lift, drag, propulsion and maneuverability of high-speed vehicles is crucially dependent on our knowledge of turbulent shear layers, and our understanding of their behavior in the presence of shock waves and regions of changing pressure. Turbulent Shear Layers in Supersonic Flow provides a comprehensive introduction to the field, and helps provide a basis for future work in this area. Wherever possible we use the available experimental work, and the results from numerical simulations to illustrate and develop a physical understanding of turbulent compressible flows.
Previous ed.: Woodbury, N.Y. : American Institute of Physics, 1996.
Includes bibliographical references and index.
Equations of Motion -- Equations for Turbulent Flow -- Fundamental Concepts -- Morkovin's hypothesis -- Mixing Layers -- Boundary Layer Mean-Flow Behavior -- Boundary Layer Turbulence Behavior -- Perturbed Boundary Layers -- Shock Wave-Boundary Layer Interactions.
A good understanding of turbulent compressible flows is essential to the design and operation of high-speed vehicles. Such flows occur, for example, in the external flow over the surfaces of supersonic aircraft, and in the internal flow through the engines. Our ability to predict the aerodynamic lift, drag, propulsion and maneuverability of high-speed vehicles is crucially dependent on our knowledge of turbulent shear layers, and our understanding of their behavior in the presence of shock waves and regions of changing pressure. Turbulent Shear Layers in Supersonic Flow provides a comprehensive introduction to the field, and helps provide a basis for future work in this area. Wherever possible we use the available experimental work, and the results from numerical simulations to illustrate and develop a physical understanding of turbulent compressible flows.
Fluids.
Physics.
Fluid mechanics.
Fluid- and Aerodynamics.
Numerical and Computational Physics, Simulation.
Engineering Fluid Dynamics.