Preface |
Acknowledgements |
Introduction to the equations of fluid dynamics and the finite element approximation / 1: |
General remarks and classification of fluid dynamics problems discussed in this book / 1.1: |
The governing equations of fluid dynamics / 1.2: |
Inviscid, incompressible flow / 1.3: |
Incompressible (or nearly incompressible) flows / 1.4: |
Numerical solutions: weak forms, weighted residual and finite element approximation / 1.5: |
Concluding remarks / 1.6: |
References |
Convection dominated problems - finite element approximations to the convection-diffusion-reaction equation / 2: |
Introduction / 2.1: |
The steady-state problem in one dimension / 2.2: |
The steady-state problem in two (or three) dimensions / 2.3: |
Steady state - concluding remarks / 2.4: |
Transients - introductory remarks / 2.5: |
Characteristic-based methods / 2.6: |
Taylor-Galerkin procedures for scalar variables / 2.7: |
Steady-state condition / 2.8: |
Non-linear waves and shocks / 2.9: |
Treatment of pure convection / 2.10: |
Boundary conditions for convection-diffusion / 2.11: |
Summary and concluding remarks / 2.12: |
The characteristic-based split (CBS) algorithm. A general procedure for compressible and incompressible flow / 3: |
Non-dimensional form of the governing equations / 3.1: |
Characteristic-based split (CBS) algorithm / 3.3: |
Explicit, semi-implicit and nearly implicit forms / 3.4: |
Artificial compressibility and dual time stepping / 3.5: |
'Circumvention' of the Babuska-Brezzi (BB) restrictions / 3.6: |
A single-step version / 3.7: |
Boundary conditions / 3.8: |
The performance of two-step and one-step algorithms on an inviscid problem / 3.9: |
Incompressible Newtonian laminar flows / 3.10: |
Introduction and the basic equations / 4.1: |
Use of the CBS algorithm for incompressible flows / 4.2: |
Adaptive mesh refinement / 4.3: |
Adaptive mesh generation for transient problems / 4.4: |
Slow flows - mixed and penalty formulations / 4.5: |
Incompressible non-Newtonian flows / 4.6: |
Non-Newtonian flows - metal and polymer forming / 5.1: |
Viscoelastic flows / 5.3: |
Direct displacement approach to transient metal forming / 5.4: |
Free surface and buoyancy driven flows / 5.5: |
Free surface flows / 6.1: |
Buoyancy driven flows / 6.3: |
Compressible high-speed gas flow / 6.4: |
The governing equations / 7.1: |
Boundary conditions - subsonic and supersonic flow / 7.3: |
Numerical approximations and the CBS algorithm / 7.4: |
Shock capture / 7.5: |
Variable smoothing / 7.6: |
Some preliminary examples for the Euler equation / 7.7: |
Adaptive refinement and shock capture in Euler problems / 7.8: |
Three-dimensional inviscid examples in steady state / 7.9: |
Transient two- and three-dimensional problems / 7.10: |
Viscous problems in two dimensions / 7.11: |
Three-dimensional viscous problems / 7.12: |
Boundary layer-inviscid Euler solution coupling / 7.13: |
Turbulent flows / 7.14: |
Treatment of incompressible turbulent flows / 8.1: |
Treatment of compressible flows / 8.3: |
Large eddy simulation / 8.4: |
Detached Eddy Simulation (DES) / 8.5: |
Direct Numerical Simulation (DNS) / 8.6: |
Generalized flow through porous media / 8.7: |
A generalized porous medium flow approach / 9.1: |
Discretization procedure / 9.3: |
Non-isothermal flows / 9.4: |
Forced convection / 9.5: |
Natural convection / 9.6: |
Shallow water problems / 9.7: |
The basis of the shallow water equations / 10.1: |
Numerical approximation / 10.3: |
Examples of application / 10.4: |
Drying areas / 10.5: |
Shallow water transport / 10.6: |
Long and medium waves / 10.7: |
Introduction and equations / 11.1: |
Waves in closed domains - finite element models / 11.2: |
Difficulties in modelling surface waves / 11.3: |
Bed friction and other effects / 11.4: |
The short-wave problem / 11.5: |
Waves in unbounded domains (exterior surface wave problems) / 11.6: |
Unbounded problems / 11.7: |
Local Non-Reflecting Boundary Conditions (NRBCs) / 11.8: |
Infinite elements / 11.9: |
Mapped periodic (unconjugated) infinite elements / 11.10: |
Ellipsoidal type infinite elements of Burnett and Holford / 11.11: |
Wave envelope (or conjugated) infinite elements / 11.12: |
Accuracy of infinite elements / 11.13: |
Trefftz type infinite elements / 11.14: |
Convection and wave refraction / 11.15: |
Transient problems / 11.16: |
Linking to exterior solutions (or DtN mapping) / 11.17: |
Three-dimensional effects in surface waves / 11.18: |
Short waves / 11.19: |
Background / 12.1: |
Errors in wave modelling / 12.3: |
Recent developments in short wave modelling / 12.4: |
Transient solution of electromagnetic scattering problems / 12.5: |
Finite elements incorporating wave shapes / 12.6: |
Refraction / 12.7: |
Spectral finite elements for waves / 12.8: |
Discontinuous Galerkin finite elements (DGFE) / 12.9: |
Computer implementation of the CBS algorithm / 12.10: |
The data input module / 13.1: |
Solution module / 13.3: |
Output module / 13.4: |
Non-conservative form of Navier-Stokes equations / Appendix A: |
Self-adjoint differential equations / Appendix B: |
Postprocessing / Appendix C: |
Integration formulae / Appendix D: |
Convection-diffusion equations: vector-valued variables / Appendix E: |
Edge-based finite element formulation / Appendix F: |
Multigrid method / Appendix G: |
Boundary layer-inviscid flow coupling / Appendix H: |
Mass-weighted averaged turbulence transport equations / Appendix I: |
Author index |
Subject index |
Preface |
Acknowledgements |
Introduction to the equations of fluid dynamics and the finite element approximation / 1: |
General remarks and classification of fluid dynamics problems discussed in this book / 1.1: |
The governing equations of fluid dynamics / 1.2: |
Inviscid, incompressible flow / 1.3: |