http://www.loc.gov/mods/v3 http://www.loc.gov/standards/mods/v3/mods-3-2.xsd
Fluid mechanics in channel, pipe and aerodynamic design geometries
Fluid mechanics is an important scientific field with various industrial applications for flows or energy consumption and efficiency issues. This book has as main aim to be a textbook of applied knowledge in real fluids as well as to the Hydraulic systems components and operation, with emphasis to the industrial or real life problems for piping and aerodynamic design geometries. Various problems will be presented and analyzed through this book. '
Cover; Half-Title Page; Dedication; Title Page; Copyright Page; Contents; Preface; 1. Pipe Networks; 1.1. Introduction; 1.2. Calculation of pipe networks; 1.3. Problem-solving methodology for pipe networks; 1.4. Overall approach for the network calculation; 1.5. The Hazen-Williams equation for network analysis; 1.6. Hazen-Williams and Darcy-Weisbach identity; 1.7. Hardy-Cross method; 1.8. Formulae; 1.9. Questions; 1.10. Problems with solutions; 1.11. Problems to be solved; 2. Open Channel Flow; 2.1. Introduction; 2.2. Non-dimensional parameters in open channels
2.3. Open channel types of flow2.4. Open channels' geometrical shapes; 2.4.1. Channels of rectangular cross-sectional area; 2.4.2. Channels of trapezoidal cross-sectional area; 2.4.3. Channels of circular cross-sectional area; 2.5. The hydraulic jump; 2.6. Calculation of the depth flow after the hydraulic jump; 2.7. Velocity distribution; 2.8. Velocity distribution at the vertical level; 2.9. Uniform flow in open channel equations -- Chezy type; 2.10. Best hydraulic cross-sectional area; 2.11. Specific flow energy; 2.12. Channels of rectangular cross-sectional area
2.13. Open channels' more adequate cross-sectional areas2.13.1. Rectangular cross-sectional area; 2.13.2. Trapezoidal cross-sectional area; 2.14. Non-uniform flow in open channels; 2.15. Channels of non-rectangular cross-section area; 2.16. Formulae; 2.16.1. Channels of rectangular cross-sectional area formulae; 2.16.2. Channels of trapezoidal cross-section formulae; 2.16.3. Channels of circular cross-sectional area formulae; 2.16.4. Channels of rectangular cross-sectional area formulae; 2.16.5. Channels of non-rectangular cross-sectional area formulae; 2.17. Questions
4.6. Lift curve4.7. Drag force and drag coefficient curve; 4.7.1. Drag of skin friction; 4.7.2. Form drag; 4.7.3. Induced drag; 4.8. Parameters that influence the drag coefficient; 4.8.1. Dependence of CD on the body's shape; 4.8.2. Dependence of CD on relative roughness; 4.8.3. Dependence of CD on the Reynolds number; 4.9. External flow around industrial solid bodies; 4.9.1. Car's motion; 4.9.2. Surface vessel's motion; 4.9.3. Wind flow in ground constructions; 4.9.4. Airplane's motion; 4.10. Drag in fluid drops and gas bubbles in creeping flow; 4.11. Formulae; 4.12. Questions
Christina G. Georgantopoulou, George A. Georgantopoulos.
Plný text je dostupný pouze z IP adres počítačů Univerzity Tomáše Bati ve Zlíně nebo vzdáleným přístupem pro zaměstnance a studenty
Includes bibliographical references and index.
Science, society and new technologies series
Science, society and new technology series. v. 3
Engineering, energy and architecture set