Muutke küpsiste eelistusi

CFD Module: Turbulent Flow Modeling [Kõva köide]

  • Formaat: Hardback, 346 pages, kaal: 499 g
  • Sari: Multiphysics Modeling Series
  • Ilmumisaeg: 03-Jun-2015
  • Kirjastus: Mercury Learning & Information
  • ISBN-10: 1937585433
  • ISBN-13: 9781937585433
Teised raamatud teemal:
  • Formaat: Hardback, 346 pages, kaal: 499 g
  • Sari: Multiphysics Modeling Series
  • Ilmumisaeg: 03-Jun-2015
  • Kirjastus: Mercury Learning & Information
  • ISBN-10: 1937585433
  • ISBN-13: 9781937585433
Teised raamatud teemal:
This book can be used as a reference for the topic of turbulence modeling, especially in an engineering modeling and simulation course or as a tool for professionals on practical applications. Turbulent flow modeling has many applications in industry. The relevant numerical methods have advanced to the level that could be used by industry professionals to model many natural turbulent flows with acceptable accuracy. In this book we cover the fundamentals of turbulence, modeling techniques, and algorithms (including RANS) available in COMSOL® as well as providing several modeling examples and instructions for building these models. The companion DVD includes models and figures discussed in the book.

eBook Customers: Companion files are available for downloading with order number/proof of purchase by writing to the publisher at info@merclearning.com.

Features:



Includes companion DVD with models and figures discussed in the book Explains the physics and principles of turbulence and provides modeling examples using COMSOL
Preface ix
Chapter 1 Turbulence Fundamentals: A Summary
1(14)
Overview
1(1)
Some Observations of Turbulent Flows
2(5)
Turbulence Characteristics
7(5)
Turbulent Flow Types
12(1)
Exercises
13(2)
Chapter 2 Turbulence Modeling: Approaches and Models
15(60)
Overview
15(2)
Modeling Methods
17(2)
RANS Equations
19(6)
Closure Methods
25(2)
Specific RANS Models
27(5)
First order models
27(1)
Algebraic zero-equation models
28(1)
One-equation model
29(1)
Two-equation model
29(1)
Second order models
30(1)
Reynolds stress model
30(1)
Algebraic stress model
30(2)
Comsol Rans Models
32(40)
Overview and governing equations
32(1)
Exact turbulent kinetic energy transport equation
33(5)
Exact turbulent kinetic energy dissipation transport equation
38(2)
κ-ε model
40(6)
κ-ω model
46(5)
Shear stress transport κ-ω model
51(5)
Wall Functions
56(6)
Low-Re κ-ε model
62(4)
Sparlat-Allmaras model
66(3)
Boundary and Initial Conditions
69(1)
Algebraic yPlus model
70(1)
L-VEL model
71(1)
General Guideline for Turbulent Models Applications
72(3)
Chapter 3 Comsol Multiphysics®: Overview and CFD Module
75(28)
Overview
75(3)
Application Builder
78(1)
Comsol Modules
79(1)
Comsol Model/ Application Libraries and Tutorials
80(1)
Comsol Interface or Desktop
81(4)
CFD Module
85(2)
Example 3.1 Laminar flow in a sudden pipe contraction
87(14)
Using Application Builder for Example 3.1
97(4)
General Guideline for Building a Model in Comsol
101(1)
Exercises
102(1)
Chapter 4 Turbulent Flow Models: Application Examples
103(74)
Overview
103(1)
Example 4.1 Modeling of turbulent flow for an asymmetric diffuser
104(11)
Example 4.2 Modeling of turbulent flow around the S809 airfoil
115(14)
Example 4.3 Modeling of turbulent flow in a pipe with 90° bend
129(13)
Example 4.4 Modeling of turbulent flow in a ventilated room
142(15)
Example 4.5 Modeling of turbulent flow for a jet in cross-flow
157(11)
Example 4.6 Modeling of turbulent flow over a circuit board in a duct
168(6)
Exercises
174(3)
Appendix: Derivation of Governing Equations
177(14)
Averaging Relations
177(2)
Reynolds Averaged Navier-Stokes Equations (RANS)
179(2)
Exact Equations for Reynolds Stress Transport
181(3)
Mean-Kinetic Energy Equation
184(1)
Exact Equation for Turbulent Kinetic Energy Transport
185(2)
Exact Equation for Turbulent Kinetic Energy Dissipation Transport
187(2)
Reynolds Averaged Equation for a Scalar Transport
189(2)
References 191(8)
Index 199
Tabatabaian Mehrzad : Mehrzad Tabatabaian holds a PhD from McGill University and is currently Chair of the BCIT School of Energy Research Committee. He has published several papers for scientific journals and conferences, and he has written textbooks on multiphysics and turbulent flow modelling, thermodynamics, and direct energy conversion. He holds several registered patents in the energy field and currently teaches courses in renewable energy and thermal engineering.