Ebook: Basics of Aerothermodynamics
Author: Prof. Dr. E. H. Hirschel (auth.)
- Tags: Automotive and Aerospace Engineering Traffic, Numerical and Computational Methods in Engineering, Physics and Applied Physics in Engineering, Engineering Thermodynamics Transport Phenomena, Continuum Mechanics and Mechanics of Materials
- Year: 2005
- Publisher: Springer Berlin Heidelberg
- Language: English
- pdf
This book gives an introduction to the basics of aerothermodynamics, as applied in particular to winged re-entry vehicles and airbreathing cruise and acceleration vehicles. Beginning with a broad vehicle classification and a discussion of the flight environment, Basics of Aero-thermodynamics focuses on flight in the earth's atmosphere at speeds below approximately 8.0 km/s at altitudes below approximately 100.0 km.
At such flight conditions the outer surfaces of hypersonic flight vehicles primarily are radiation cooled. This is taken into account by an introduction to the problem of the thermal state of the surface, and especially to the phenomena connected with surface radiation cooling. These are themes, which reappear throughout the remaining chapters. The implications of radiation cooling are different for the different vehicle classes. In any case the properties of both attached viscous and separating flows as well as thermo-chemical effects at and near the vehicle surface need to be considered.
After a review of the issues of transport of momentum, energy and mass, real-gas effects as well as inviscid and viscous flow phenomena are treated. In view of their special importance for airbreathing hypersonic flight vehicles and for the discrete numerical methods of aerothermodynamics, considerable discussion is devoted to the issues of laminar-turbulent transition and turbulence, which follows a treatment of strong-interaction phenomena. Finally, simulation techniques for aerothermodynamics are considered, including computational methods and their modelling problems, as well as the problems of ground facility and in-flight simulation, including the hot experimental technique. The implications of Oswatitsch's Mach number independence principle are also treated.
The book is for graduate students, doctoral students, design and development engineers, but also for technical managers. The reader should be familiar with the basics of fluid mechanics, aerodynamics, and thermodynamics.
This book gives an introduction to the basics of aerothermodynamics, as applied in particular to winged re-entry vehicles and airbreathing cruise and acceleration vehicles. Beginning with a broad vehicle classification and a discussion of the flight environment, Basics of Aero-thermodynamics focuses on flight in the earth's atmosphere at speeds below approximately 8.0 km/s at altitudes below approximately 100.0 km.
At such flight conditions the outer surfaces of hypersonic flight vehicles primarily are radiation cooled. This is taken into account by an introduction to the problem of the thermal state of the surface, and especially to the phenomena connected with surface radiation cooling. These are themes, which reappear throughout the remaining chapters. The implications of radiation cooling are different for the different vehicle classes. In any case the properties of both attached viscous and separating flows as well as thermo-chemical effects at and near the vehicle surface need to be considered.
After a review of the issues of transport of momentum, energy and mass, real-gas effects as well as inviscid and viscous flow phenomena are treated. In view of their special importance for airbreathing hypersonic flight vehicles and for the discrete numerical methods of aerothermodynamics, considerable discussion is devoted to the issues of laminar-turbulent transition and turbulence, which follows a treatment of strong-interaction phenomena. Finally, simulation techniques for aerothermodynamics are considered, including computational methods and their modelling problems, as well as the problems of ground facility and in-flight simulation, including the hot experimental technique. The implications of Oswatitsch's Mach number independence principle are also treated.
The book is for graduate students, doctoral students, design and development engineers, but also for technical managers. The reader should be familiar with the basics of fluid mechanics, aerodynamics, and thermodynamics.
Content:
Front Matter....Pages I-XIII
Introduction....Pages 1-13
The Flight Environment....Pages 15-26
The Thermal State of the Surface....Pages 29-68
Transport for Momentum, Energy and Mass....Pages 69-100
Real-Gas Aerothermodynamic Phenomena....Pages 101-133
Inviscid Aerothermodynamic Phenomena....Pages 135-198
Attached High-Speed Viscous Flow....Pages 199-261
Laminar-Turbulent Transition and Turbulence in High-Speed Viscous Flow....Pages 263-310
Strong Interaction Phenomena....Pages 311-355
Simulation Means....Pages 357-379
The RHPM-Flyer....Pages 381-384
Governing Equations for Flow in General Coordinates....Pages 385-388
Constants, Functions, Dimensions and Conversions....Pages 389-393
Symbols....Pages 393-399
Back Matter....Pages 401-413
This book gives an introduction to the basics of aerothermodynamics, as applied in particular to winged re-entry vehicles and airbreathing cruise and acceleration vehicles. Beginning with a broad vehicle classification and a discussion of the flight environment, Basics of Aero-thermodynamics focuses on flight in the earth's atmosphere at speeds below approximately 8.0 km/s at altitudes below approximately 100.0 km.
At such flight conditions the outer surfaces of hypersonic flight vehicles primarily are radiation cooled. This is taken into account by an introduction to the problem of the thermal state of the surface, and especially to the phenomena connected with surface radiation cooling. These are themes, which reappear throughout the remaining chapters. The implications of radiation cooling are different for the different vehicle classes. In any case the properties of both attached viscous and separating flows as well as thermo-chemical effects at and near the vehicle surface need to be considered.
After a review of the issues of transport of momentum, energy and mass, real-gas effects as well as inviscid and viscous flow phenomena are treated. In view of their special importance for airbreathing hypersonic flight vehicles and for the discrete numerical methods of aerothermodynamics, considerable discussion is devoted to the issues of laminar-turbulent transition and turbulence, which follows a treatment of strong-interaction phenomena. Finally, simulation techniques for aerothermodynamics are considered, including computational methods and their modelling problems, as well as the problems of ground facility and in-flight simulation, including the hot experimental technique. The implications of Oswatitsch's Mach number independence principle are also treated.
The book is for graduate students, doctoral students, design and development engineers, but also for technical managers. The reader should be familiar with the basics of fluid mechanics, aerodynamics, and thermodynamics.
Content:
Front Matter....Pages I-XIII
Introduction....Pages 1-13
The Flight Environment....Pages 15-26
The Thermal State of the Surface....Pages 29-68
Transport for Momentum, Energy and Mass....Pages 69-100
Real-Gas Aerothermodynamic Phenomena....Pages 101-133
Inviscid Aerothermodynamic Phenomena....Pages 135-198
Attached High-Speed Viscous Flow....Pages 199-261
Laminar-Turbulent Transition and Turbulence in High-Speed Viscous Flow....Pages 263-310
Strong Interaction Phenomena....Pages 311-355
Simulation Means....Pages 357-379
The RHPM-Flyer....Pages 381-384
Governing Equations for Flow in General Coordinates....Pages 385-388
Constants, Functions, Dimensions and Conversions....Pages 389-393
Symbols....Pages 393-399
Back Matter....Pages 401-413
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