Muutke küpsiste eelistusi

E-raamat: Two-Phase Flow: Theory and Applications [Taylor & Francis e-raamat]

  • Formaat: 468 pages, 150 Line drawings, black and white
  • Ilmumisaeg: 23-May-2003
  • Kirjastus: CRC Press Inc
  • ISBN-13: 9780203734865
  • Taylor & Francis e-raamat
  • Hind: 295,43 €*
  • * hind, mis tagab piiramatu üheaegsete kasutajate arvuga ligipääsu piiramatuks ajaks
  • Tavahind: 422,05 €
  • Säästad 30%
  • Formaat: 468 pages, 150 Line drawings, black and white
  • Ilmumisaeg: 23-May-2003
  • Kirjastus: CRC Press Inc
  • ISBN-13: 9780203734865
This text combines theory and applications with regard to a variety of homogenous mixtures, as well as separated liquid-liquid, gas-solid, liquid-solid, and gas-liquid flow problems, which may be steady or transient, laminar or turbulent. It is intended for practitioners as well as advanced seniors and graduate students in a broad range of engineering disciplines (mechanical, chemical, biomedical, nuclear, environmental, and aerospace); and those in applied mathematics and classical physics, including aerosol science. The text reviews single-phase fluid dynamics and different approaches to two-phase flow, walks through the derivation of two-phase flow modeling equations, describes numerical solution methods and computer software, and presents case studies of real-world applications. Each chapter features sample problems and solutions. The author is affiliated with the department of mechanical and aerospace engineering at North Carolina State University, Raleigh. Annotation (c) Book News, Inc., Portland, OR (booknews.com)

This graduate text provides a unified treatment of the fundamental principles of two-phase flow and shows how to apply the principles to a variety of homogeneous mixture as well as separated liquid-liquid, gas-solid, liquid-solid, and gas-liquid flow problems, which may be steady or transient, laminar or turbulent.

Each chapter contains several sample problems, which illustrate the outlined theory and provide approaches to find simplified analytic descriptions of complex two-phase flow phenomena.

This well-balanced introductory text will be suitable for advanced seniors and graduate students in mechanical, chemical, biomedical, nuclear, environmental and aerospace engineering, as well as in applied mathematics and the physical sciences. It will be a valuable reference for practicing engineers and scientists. A solutions manual is available to qualified instructors.
Preface xi
Review of Single-Phase Flow
1(68)
Basic Fluid Flow Concepts
2(5)
Flow Field Descriptions
7(5)
Lagrangian Description
8(1)
Eulerian Description
9(1)
Derivation Approaches
10(2)
Conservation Laws
12(19)
Mass Conservation
14(1)
Momentum Conservation
15(13)
Energy Conservation
28(3)
Turbulence
31(16)
Aspects of Turbulence in Single-Phase Flow
32(4)
Turbulence Scales
36(1)
Summary of Turbulence Modeling
37(10)
Solution Techniques
47(15)
Solution Methods for Differential Equations
49(1)
Solution Procedures for the Navier-Stokes Equations
49(5)
Similarity Theory
54(2)
Integral Methods
56(3)
Dimensional Analysis and Scaling
59(3)
Homework Problem Assignments
62(7)
References
65(4)
Basic Concepts of Two-Phase Flow Theory
69(64)
Flow Regime Classifications and Modeling Approaches
70(9)
Two-Phase Flow Classifications and Examples
70(7)
Modeling Approaches
77(2)
Dispersed Flow Definitions, Phase Properties, and Phase Coupling
79(23)
Definitions
79(14)
Phase Properties
93(6)
Phase Coupling
99(3)
Mass, Momentum, and Heat Transfer
102(12)
Mass Transfer
102(4)
Momentum Transfer
106(2)
Heat Transfer
108(6)
Statistical Descriptions
114(5)
Turbulence Modulation
114(2)
Kinetic Theory
116(3)
Illustrations of Some Practical Dispersed Flows
119(5)
Gas-Solid Flows
119(3)
Liquid-Solid Flows
122(1)
Liquid-Gas Flows
123(1)
Homework Problem Assignments
124(9)
References
128(5)
Derivations of Two-Phase Flow Modeling Equations
133(94)
Averaging Techniques and Constitutive Equations
134(4)
Mixture Models
138(27)
Homogeneous Flow Models
139(1)
Mixture Properties and Solution Techniques
139(5)
Non-Newtonian Fluid Flow Equations
144(5)
Homework Problems
149(1)
Drift-Flux Models
150(1)
One-Dimensional Drift-Flux Equations
151(10)
Extended Transport Equations
161(3)
Homework Problems
164(1)
Separated Flow Models
165(55)
Particle Trajectory Models
165(1)
Single Spherical Particles
165(10)
Particle Interactions
175(2)
Particle Group Interactions
177(2)
Two-Fluid Model
179(2)
Two-Fluid Model Formulation
181(6)
Averaged Equations
187(9)
Alternative Derivation of the Two-Fluid Modeling Equations
196(3)
Separated Flow Model Applications
199(6)
Closure Conditions
205(11)
Pressure Drop Evaluation
216(4)
Problem Assignments
220(7)
References
221(6)
Analyses and Numerical Simulations of Basic Two-Phase Flows
227(70)
Numerical Solution Tools
227(19)
Symbolic/Numerical Math Software
228(2)
Computational Fluid Dynamics Codes
230(6)
Particle Tracking Code
236(10)
Mixture Flow Applications
246(23)
Two-Phase Flow Regimes in a Channel
246(4)
Newtonian vs. Non-Newtonian Fluid Flows
250(12)
Mixture Flows with Drift Flux
262(7)
Particle Trajectory Dynamics
269(17)
Analytic Solution
269(8)
Particle Behavior for Sinusoidal Input
277(3)
Particle Behavior for Start-up Motion
280(2)
Spray Dynamics
282(4)
Two-Fluid Model Applications
286(5)
Bubbly Flow
286(3)
Fluid-Solid Flow in a Vertical Pipe
289(2)
Project Assignments
291(6)
References
293(4)
Selected Case Studies
297(112)
Mathematical Modeling, Computer Simulation, and Virtual Prototyping
299(14)
Problem Recognition and System Conceptualization
301(2)
Types of Models and Modeling Approaches
303(5)
Mathematical Representation and System Simulation
308(5)
Quasi-Homogeneous Equilibrium Flows (EULER)
313(30)
Two-Dimensional Dispersed Flows
313(12)
Transient 3-D Suspension Flows
325(18)
Separated Flows I: Fluid-Particle Models (Euler-Lagrange)
343(49)
Lung Aerosol Transport and Deposition
344(28)
Near-Wall Particle Residence Times in Bifurcating Blood Vessels
372(20)
Separated Flows II: Two-Fluid Models
392(11)
Bubble Columns
392(7)
Two-Phase Flow in a Mixing Tank Reactor with an Impeller
399(4)
Summary
403(6)
References
404(5)
APPENDICES
409(39)
A. Algebraic and Differential Operations with Tensors
410(13)
B. Single-Phase Field Equations
423(14)
C. Two-Phase Flow Terms and Variables
437(8)
D. Physical Properties of Gases, Liquids, and Solids
445(3)
References
447(1)
Index 448
Clement Kleinstreuer is Professor in the Department of Mechanical and Aerospace Engineering at North Carolina State University, Raleigh. He has written over 100 research papers, several book chapters and EngineeringFluid Dynamics.