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Introduction to Fluid Mechanics (2nd Ed.)

Langue : Anglais

Auteur :

Couverture de l’ouvrage Introduction to Fluid Mechanics

Introduction to Fluid Mechanics, Second Edition, uses clear images and animations of flow patterns to help readers grasp the fundamental rules of fluid behavior. Everyday examples are provided for practical context, before tackling the more involved mathematic techniques that form the basis for computational fluid mechanics.

This fully updated and expanded edition builds on the author?s flair for flow visualization with new content. With basic introductions to all essential fluids theory, and exercises to test your progress, this is the ideal introduction to fluids for anyone involved in mechanical, civil, chemical, or biomedical engineering.

1. History of Fluid Mechanics
2. Characteristics of a Fluid
3. Fluid Statics
4. Fundamentals of Flow
5. One-Dimensional Flow: Mechanism for Conservation of Flow Properties
6. Flow of Viscous Fluid
7. Flow in Pipes
8. Flow in an Open Water Channel
9. Drag and Lift
10. Dimensional Analysis and Law of Similarity
11. Measurement of Flow Velocity and Flow Rate
12. Flow of Ideal Fluid
13. Flow of a Compressible Fluid
14. Unsteady Flow
15. Computational Fluid Dynamics
16. Flow Visualization
Answers to problems
Lost of symbols
Colour plate
Index
Yasuki Nakayama was an internationally influential and respected expert in both mechanical engineering and visualization. During his career he held posts in Japan including President of the Future Technology Research Institute, Professor of fluid mechanics and visualization at Tokai University, and at the National Railway Research Institute. He was also a Visiting Professor at Southampton University, President of the Visualization Society of Japan, and Director of the Japan Society of Mechanical Engineering. He published over 180 research papers and more than 10 books, was a cofounder of the Journal of Visualization, and his research earned him many awards and distinctions including the Medal with Purple Ribbon from the Emperor of Japan. He sadly passed away in 2016 before this book was published.
  • Provides illustrations and animations to demonstrate fluid behavior
  • Includes examples and exercises drawn from a range of engineering fields
  • Explains a range of computerized and traditional methods for flow visualization, and how to choose the correct one
  • Features a fully reworked section on computational fluid dynamics based on discretization methods

Date de parution :

Ouvrage de 400 p.

19x23.3 cm

Disponible chez l'éditeur (délai d'approvisionnement : 14 jours).

122,46 €

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Thèmes d’Introduction to Fluid Mechanics :

Mots-clés :

Absolute pressure; Acceleration; Aqueducts; Arbitrary particle; Automatic power control; Average flow velocity; Bazin equation; Bernoulli's equation; Boundary layer; Buckingham's ? Chezy's formula; Compressibility; Computer-aided flow visualization; Continuity equation; Couette flow; Cross-sectional area; Degree of compressibility; Density; Depth; Diffusion; Dimensional analysis; Drag; Eddie; Euler's equation of motion; Euler; Eulerian method; External flow; Flow rate; Flow velocity; Flow visualization; Flow; Fluid dynamics; Fluid mass; Fluid mechanics; Fluid movement; Fluid phenomena; Fluid statics; Fluid; Frictional loss; Frictional resistance; Functional relationship; Ganguillet-Kutter equation; Hydraulic mean depth; Hydraulics; Hydrodynamics; Ideal fluid; Incompressible fluid; Incompressible viscous fluid; Inertia term; Jomon pot; Kaleidoscopic changes; Kirchhoff; Lagrangian method; Law of similarity; Leonardo Da Vinci; Lift; Mach number; Manning equation; Manometer; Momentum equation; Momentum; Movement of flow; Navier-Stokes equations; Navier-Stokes; Newtonian fluid; Nondimensional quantities; One-dimensional flow; Open channel; Open water channel; Pipe bend; Pipe line; Power transmission; Pressure loss; Pressure; Qscillation of a liquid column; Relative rest; Reynolds number; Sonic velocity; Specific gravity; Specific volume; Stagnation point; Stokes equation; Subsonic flow; Supersonic flow; theorem; Thermodynamics; Unsteady flow; Velocity; Viscosity term; Viscous flow; Vorticity; Wake