The Finite Element Method for Fluid Dynamics
- 6th Edition - November 24, 2005
- Imprint: Butterworth-Heinemann
- Authors: O. C. Zienkiewicz, R. L. Taylor, P. Nithiarasu
- Language: English
- Paperback ISBN:9 7 8 - 1 - 4 9 3 3 - 0 2 9 0 - 1
- Hardback ISBN:9 7 8 - 0 - 7 5 0 6 - 6 3 2 2 - 9
- eBook ISBN:9 7 8 - 0 - 0 8 - 0 4 5 5 5 9 - 4
Dealing with general problems in fluid mechanics, convection diffusion, compressible and incompressible laminar and turbulent flow, shallow water flows and waves, this is the… Read more
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Request a sales quoteDealing with general problems in fluid mechanics, convection diffusion, compressible and incompressible laminar and turbulent flow, shallow water flows and waves, this is the leading text and reference for engineers working with fluid dynamics in fields including aerospace engineering, vehicle design, thermal engineering and many other engineering applications. The new edition is a complete fluids text and reference in its own right. Along with its companion volumes it forms part of the indispensable Finite Element Method series.
New material in this edition includes sub-grid scale modelling; artificial compressibility; full new chapters on turbulent flows, free surface flows and porous medium flows; expanded shallow water flows plus long, medium and short waves; and advances in parallel computing.
New material in this edition includes sub-grid scale modelling; artificial compressibility; full new chapters on turbulent flows, free surface flows and porous medium flows; expanded shallow water flows plus long, medium and short waves; and advances in parallel computing.
- A complete, stand-alone reference on fluid mechanics applications of the FEM for mechanical, aeronautical, automotive, marine, chemical and civil engineers.
- Extensive new coverage of turbulent flow and free surface treatments
Practicing engineers, senior students and researchers in mechanical, automotive, aeronautical and civil engineering. Key topic for applied mathematicians and engineering software developers.
1 Introduction to the equations of fluid dynamics and the finite element
approximation
1.1 General remarks and classification of fluid dynamics problems discussed in this book
1.2 The governing equations of fluid dynamics
1.3 Inviscid, incompressible flow
1.4 Incompressible (or nearly incompressible) flows
1.5 Numerical solutions: weak forms, weighted residual and finite element approximation
1.6 Concluding remarks
1.7 Exercises
References
2 Convection dominated problems – finite element approximations to the convection–diffusion-reaction equation
2.1 Introduction
2.2 The steady-state problem in one dimension
2.3 The steady-state problem in two (or three) dimensions
2.4 Steady state -- concluding remarks
2.5 Transients -- introductory remarks
2.6 Characteristic-based methods
2.7 Taylor--Galerkin procedures for scalar variables
2.8 Steady-state condition
2.9 Non-linear waves and shocks
2.10 Treatment of pure convection
2.11 Boundary conditions for convection--diffusion
2.12 Summary and concluding remarks
2.13 Exercises
References
3 The characteristic-based split (CBS) algorithm. A general procedure for compressible and incompressible flow
3.1 Introduction
viii Contents
3.2 Non-dimensional form of the governing equations
3.3 Characteristic-based split (CBS) algorithm
3.4 Explicit, semi-implicit and nearly implicit forms
3.5 Artificial compressibility and dual time stepping
3.6 ‘Circumvention’ of the Babu¡ska--Brezzi (BB) restrictions
3.7 A single-step version
3.8 Boundary conditions
3.9 The performance of two and single step algorithms on an inviscid problem
3.10 Concluding remarks
References
4 Incompressible Newtonian laminar flows
4.1 Introduction and the basic equations
4.2 Use of the CBS algorithm for incompressible flows
4.3 Adaptive mesh refinement
4.4 Adaptive mesh generation for transient problems
4.5 Slow flows -- mixed and penalty formulations
4.6 Concluding remarks
References
5 Incompressible non-Newtonian flows
5.1 Introduction
5.2 Non-Newtonian flows - metal and polymer forming
5.3 Viscoelastic flows
5.4 Direct displacement approach to transient metal forming
5.5 Concluding remarks
References
6 Free surface and buoyancy driven flows
6.1 Introduction
6.2 Free surface flows
6.3 Buoyancy driven flows
6.4 Concluding remarks
References
7 Compressible high-speed gas flow
7.1 Introduction
7.2 The governing equations
7.3 Boundary conditions -- subsonic and supersonic flow
7.4 Numerical approximations and the CBS algorithm
7.5 Shock capture
7.6 Variable smoothing
7.7 Some preliminary examples for the Euler equation
7.8 Adaptive refinement and shock capture in
Euler problems
7.9 Three-dimensional inviscid examples in steady state
7.10 Transient two- and three-dimensional problems
Contents ix
7.11 Viscous problems in two dimensions
7.12 Three-dimensional viscous problems
7.13 Boundary layer--inviscid Euler solution coupling
7.14 Concluding remarks
References
8 Turbulent flows
8.1 Introduction
8.2 Treatment of incompressible turbulent flows
8.3 Treatment of compressible flows
8.4 Large eddy simulation
8.5 Detached Eddy Simulation (DES) and Monotonically
Integrated LES (MILES)
8.6 Direct Numerical Simulation (DNS)
8.7 Summary
References
9 Flow through porous media
9.1 Introduction
9.2 A generalized porous medium flow approach
9.3 Discretization procedure
9.4 Non-isothermal flows
9.5 Forced convection
9.6 Natural convection
9.7 Summary
References
10 Shallow water problems
10.1 Introduction
10.2 The basis of the shallow water equations
10.3 Numerical approximation
10.4 Examples of application
10.5 Drying areas
10.6 Shallow water transport
10.7 Concluding remarks
References
11 Long and medium waves
11.1 Introduction and equations
11.2 Waves in closed domains - finite element models
11.3 Difficulties in modelling surface waves
11.4 Bed friction and other effects
11.5 The short-wave problem
11.6 Waves in unbounded domains (exterior surface wave problems)
11.7 Unbounded problems
11.8 Local Non-Reflecting Boundary Conditions (NRBCs)
11.9 Infinite elements
11.10 Mapped periodic (unconjugated) infinite elements
x Contents
11.11 Ellipsoidal type infinite elements of Burnett and Holford
11.12 Wave envelope (or conjugated) infinite elements
11.13 Accuracy of infinite elements
11.14 Trefftz type infinite elements
11.15 Convection and wave refraction
11.16 Transient problems
11.17 Linking to exterior solutions (or DtN mapping)
11.18 Three-dimensional effects in surface waves
11.19 Concluding remarks
References
12 Short waves
12.1 Introduction
12.2 Background
12.3 Errors in wave modelling
12.4 Recent developments in short wave modelling
12.5 Transient solution of electromagnetic scattering problems
12.6 Finite elements incorporating wave shapes
12.7 Refraction
12.8 Spectral finite elements for waves
12.9 Discontinuous Galerkin finite elements (DGFE)
12.10 Concluding remarks
References
13 Computer implementation of the CBS algorithm
13.1 Introduction
13.2 The data input module
13.3 Solution module
13.4 Output module
References
Appendix A Non-conservative form of Navier–Stokes equations
Appendix B Self-adjoint differential equations
Appendix C Postprocessing
Appendix D Integration formulae
Appendix E Convection–diffusion equations: vector-valued variables
Appendix F Edge-based finite element formulation
Appendix G Multigrid method
Appendix H Boundary layer–inviscid flow coupling
Appendix I Mass-weighted averaged turbulence transport equations
Author Index
Subject Index
approximation
1.1 General remarks and classification of fluid dynamics problems discussed in this book
1.2 The governing equations of fluid dynamics
1.3 Inviscid, incompressible flow
1.4 Incompressible (or nearly incompressible) flows
1.5 Numerical solutions: weak forms, weighted residual and finite element approximation
1.6 Concluding remarks
1.7 Exercises
References
2 Convection dominated problems – finite element approximations to the convection–diffusion-reaction equation
2.1 Introduction
2.2 The steady-state problem in one dimension
2.3 The steady-state problem in two (or three) dimensions
2.4 Steady state -- concluding remarks
2.5 Transients -- introductory remarks
2.6 Characteristic-based methods
2.7 Taylor--Galerkin procedures for scalar variables
2.8 Steady-state condition
2.9 Non-linear waves and shocks
2.10 Treatment of pure convection
2.11 Boundary conditions for convection--diffusion
2.12 Summary and concluding remarks
2.13 Exercises
References
3 The characteristic-based split (CBS) algorithm. A general procedure for compressible and incompressible flow
3.1 Introduction
viii Contents
3.2 Non-dimensional form of the governing equations
3.3 Characteristic-based split (CBS) algorithm
3.4 Explicit, semi-implicit and nearly implicit forms
3.5 Artificial compressibility and dual time stepping
3.6 ‘Circumvention’ of the Babu¡ska--Brezzi (BB) restrictions
3.7 A single-step version
3.8 Boundary conditions
3.9 The performance of two and single step algorithms on an inviscid problem
3.10 Concluding remarks
References
4 Incompressible Newtonian laminar flows
4.1 Introduction and the basic equations
4.2 Use of the CBS algorithm for incompressible flows
4.3 Adaptive mesh refinement
4.4 Adaptive mesh generation for transient problems
4.5 Slow flows -- mixed and penalty formulations
4.6 Concluding remarks
References
5 Incompressible non-Newtonian flows
5.1 Introduction
5.2 Non-Newtonian flows - metal and polymer forming
5.3 Viscoelastic flows
5.4 Direct displacement approach to transient metal forming
5.5 Concluding remarks
References
6 Free surface and buoyancy driven flows
6.1 Introduction
6.2 Free surface flows
6.3 Buoyancy driven flows
6.4 Concluding remarks
References
7 Compressible high-speed gas flow
7.1 Introduction
7.2 The governing equations
7.3 Boundary conditions -- subsonic and supersonic flow
7.4 Numerical approximations and the CBS algorithm
7.5 Shock capture
7.6 Variable smoothing
7.7 Some preliminary examples for the Euler equation
7.8 Adaptive refinement and shock capture in
Euler problems
7.9 Three-dimensional inviscid examples in steady state
7.10 Transient two- and three-dimensional problems
Contents ix
7.11 Viscous problems in two dimensions
7.12 Three-dimensional viscous problems
7.13 Boundary layer--inviscid Euler solution coupling
7.14 Concluding remarks
References
8 Turbulent flows
8.1 Introduction
8.2 Treatment of incompressible turbulent flows
8.3 Treatment of compressible flows
8.4 Large eddy simulation
8.5 Detached Eddy Simulation (DES) and Monotonically
Integrated LES (MILES)
8.6 Direct Numerical Simulation (DNS)
8.7 Summary
References
9 Flow through porous media
9.1 Introduction
9.2 A generalized porous medium flow approach
9.3 Discretization procedure
9.4 Non-isothermal flows
9.5 Forced convection
9.6 Natural convection
9.7 Summary
References
10 Shallow water problems
10.1 Introduction
10.2 The basis of the shallow water equations
10.3 Numerical approximation
10.4 Examples of application
10.5 Drying areas
10.6 Shallow water transport
10.7 Concluding remarks
References
11 Long and medium waves
11.1 Introduction and equations
11.2 Waves in closed domains - finite element models
11.3 Difficulties in modelling surface waves
11.4 Bed friction and other effects
11.5 The short-wave problem
11.6 Waves in unbounded domains (exterior surface wave problems)
11.7 Unbounded problems
11.8 Local Non-Reflecting Boundary Conditions (NRBCs)
11.9 Infinite elements
11.10 Mapped periodic (unconjugated) infinite elements
x Contents
11.11 Ellipsoidal type infinite elements of Burnett and Holford
11.12 Wave envelope (or conjugated) infinite elements
11.13 Accuracy of infinite elements
11.14 Trefftz type infinite elements
11.15 Convection and wave refraction
11.16 Transient problems
11.17 Linking to exterior solutions (or DtN mapping)
11.18 Three-dimensional effects in surface waves
11.19 Concluding remarks
References
12 Short waves
12.1 Introduction
12.2 Background
12.3 Errors in wave modelling
12.4 Recent developments in short wave modelling
12.5 Transient solution of electromagnetic scattering problems
12.6 Finite elements incorporating wave shapes
12.7 Refraction
12.8 Spectral finite elements for waves
12.9 Discontinuous Galerkin finite elements (DGFE)
12.10 Concluding remarks
References
13 Computer implementation of the CBS algorithm
13.1 Introduction
13.2 The data input module
13.3 Solution module
13.4 Output module
References
Appendix A Non-conservative form of Navier–Stokes equations
Appendix B Self-adjoint differential equations
Appendix C Postprocessing
Appendix D Integration formulae
Appendix E Convection–diffusion equations: vector-valued variables
Appendix F Edge-based finite element formulation
Appendix G Multigrid method
Appendix H Boundary layer–inviscid flow coupling
Appendix I Mass-weighted averaged turbulence transport equations
Author Index
Subject Index
- Edition: 6
- Published: November 24, 2005
- Imprint: Butterworth-Heinemann
- No. of pages: 464
- Language: English
- Paperback ISBN: 9781493302901
- Hardback ISBN: 9780750663229
- eBook ISBN: 9780080455594
OZ
O. C. Zienkiewicz
Professor O.C. Zienkiewicz, CBE, FRS, FREng died on 2 January 2009. Prior to his death he was Professor Emeritus at the Civil and Computational Engineering Centre, University of Wales Swansea and previously was Director of the Institute for Numerical Methods in Engineering at the University of Wales Swansea, UK. He also held the UNESCO Chair of Numerical Methods in Engineering at the Technical University of Catalunya, Barcelona, Spain. He was the head of the Civil Engineering Department at the University of Wales Swansea between 1961 and 1989. During this period he established that department as one of the primary centres of finite element research. In 1968 he became the Founder Editor of the International Journal for Numerical Methods in Engineering which still remains today the major journal in this field. The recipient of 27 honorary degrees and many medals, Professor Zienkiewicz was a member of five academies – an honour he received for his many contributions to the fundamental developments of the finite element method. In 1978, he became a Fellow of the Royal Society and the Royal Academy of Engineering. This was followed by his election as a foreign member to the US National Academy of Engineering (1981), the Polish Academy of Science (1985), the Chinese Academy of Sciences (1998), and the National Academy of Science, Italy (Academia dei Lincei) (1999). He published the first edition of this book in 1967 and it remained the only book on the subject until 1971.
Affiliations and expertise
Swansea University, Swansea, WalesRT
R. L. Taylor
Professor R.L. Taylor has more than 60 years of experience in the modelling and simulation of structures and solid continua including eighteen years in industry. He is Professor of the Graduate School and the Emeritus T.Y. and Margaret Lin Professor of Engineering at the University of California, Berkeley and also Corporate Fellow at Dassault Systèmes Americas Corp. in Johnston, Rhode Island. In 1991 he was elected to membership in the US National Academy of Engineering in recognition of his educational and research contributions to the field of computational mechanics. Professor Taylor is a Fellow of the US Association for Computational Mechanics – USACM (1996) and a Fellow of the International Association of Computational Mechanics – IACM (1998). He has received numerous awards including the Berkeley Citation, the highest honour awarded by the University of California, Berkeley, the USACM John von Neumann Medal, the IACM Gauss–Newton Congress Medal and a Dr.-Ingenieur ehrenhalber awarded by the Technical University of Hannover, Germany. Professor Taylor has written several computer programs for finite element analysis of structural and non-structural systems, one of which, FEAP, is used world-wide in education and research environments. A personal version, FEAPpv, available on GitHub, is incorporated into this book.
Affiliations and expertise
Emeritus Professor of Engineering, University of California, Berkeley, USAPN
P. Nithiarasu
P. Nithiarasu is Professor at Zienkiewicz Institute for Modelling, Data and AI and Associate Dean for Research, Innovation and Impact, Faculty of Science and Engineering, Swansea University. Previously he has served as the Head of Zienkiewicz Centre for Computational Engineering, Deputy Head of College of Engineering and Dean of Academic Leadership. He was awarded the Zienkiewicz silver medal from the ICE London in 2002, the ECCOMAS Young Investigator award in 2004, and the prestigious EPSRC Advanced Fellowship in 2006.
Affiliations and expertise
Professor, Zienkiewicz Institute for Modelling, Data and AI and Associate Dean for Research, Innovation and Impact, Faculty of Science and Engineering, Swansea University