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Turbulence An Introduction for Scientists and Engineers

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ISBN-10: 0198529481

ISBN-13: 9780198529484

Edition: 2004

Authors: P. A. Davidson

List price: $250.00
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Based on a course by the author at the University of Cambridge, this comprehensive text on turbulence and fluid dynamics is aimed at year 4 undergraduates and graduates in applied mathematics, physics and engineering and provides an ideal reference for industry professionals and researchers. It bridges the gap between elementary accounts of turbulence found in undergraduate texts and more rigorous accounts given in monographs on the subject. Containing exercises and many examples, the author combines the maximum of physical insight with the minimum of mathematical detail where possible. The text is highly illustrated throughout, and includes color plates; all required mathematical…    
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Book details

List price: $250.00
Copyright year: 2004
Publisher: Oxford University Press, Incorporated
Publication date: 7/8/2004
Binding: Hardcover
Pages: 678
Size: 7.44" wide x 9.69" long x 1.60" tall
Weight: 3.938
Language: English

Peter A. Davidson is Professor in the Department of Engineering at the University of Cambridge.

The classical picture of turbulence
The ubiquitous nature of turbulence
The experiments of Taylor and Benard
Flow over a cylinder
Reynolds' experiment
Common themes
The ubiquitous nature of turbulence
Different scales in a turbulent flow: a glimpse at the energy cascade of Kolmogorov and Richardson
The closure problem of turbulence
Is there a 'theory of turbulence'?
The interaction of theory, computation, and experiment
The equations of fluid mechanics
The Navier-Stokes equation
Newton's second law applied to a fluid
The convective derivative
Integral versions of the momentum equation
The rate of dissipation of energy in a viscous fluid
Relating pressure to velocity
Vorticity dynamics
Vorticity and angular momentum
The vorticity equation
Kelvin's theorem
Tracking vorticity distributions
A definition of turbulence
The origins and nature of turbulence
The nature of chaos
From non-linearity to chaos
More on bifurcations
The arrow of time
Some elementary properties of freely evolving turbulence
Various stages of development
The rate of destruction of energy in fully developed turbulence
How much does the turbulence remember?
The need for a statistical approach and different methods of taking averages
Velocity correlations, structure functions and the energy spectrum
Is the asymptotic state universal? Kolmogorov's theory
The probability distribution of the velocity field
Turbulent shear flows and simple closure models
The exchange of energy between the mean flow and the turbulence
Reynolds stresses and the closure problem of turbulence
The eddy-viscosity theories of Boussinesq and Prandtl
The transfer of energy from the mean flow to the turbulence
A glimpse at the k-[epsilon] model
Wall-bounded shear flows and the log-law of the wall
Turbulent flow in a channel and the log-law of the wall
Inactive motion--a problem for the log-law?
Turbulence profiles in channel flow
The log-law for a rough wall
The structure of a turbulent boundary layer
Coherent structures
Spectra and structure functions near the wall
Free shear flows
Planar jets and wakes
The round jet
Homogeneous shear flow
The governing equations
The asymptotic state
Heat transfer in wall-bounded shear flows--the log-law revisited
Turbulent heat transfer near a surface and the log-law for temperature
The effect of stratification on the log-law--the atmospheric boundary layer
More on one-point closure models
A second look at the k-[epsilon] model
The Reynolds stress model
Large eddy simulation: a rival for one-point closures?
The phenomenology of Taylor, Richardson, and Kolmogorov
Richardson revisited
Time and length-scales in turbulence
The energy cascade pictured as the stretching of turbulent eddies
The dynamic properties of turbulent eddies
Kolmogorov revisited
Dynamics of the small scales
Turbulence induced fluctuations of a passive scalar
The intensification of vorticity and the stretching of material lines
Enstrophy production, the skewness factor, and scale invariance
Sheets or tubes?
Examples of concentrated vortex sheets and tubes
Are there singularities in the vorticity field?
The stretching of material line elements
The interplay of the strain and vorticity fields
Turbulent diffusion by continuous movements
Taylor diffusion of a single particle
Richardson's law for the relative diffusion of two particles
The influence of mean shear on turbulent dispersion
Why turbulence is never Gaussian
The experimental evidence and its interpretation
A glimpse at closure schemes which assume near-Gaussian statistics
Closure
The statistical equations for a passive scalar in isotropic turbulence: Yaglom's four-thirds Law and Corrsin's integral
Freely decaying, homogeneous turbulence
Isotropic turbulence (In real space)
Introduction: exploring isotropic turbulence in real space
Deterministic cartoons versus statistical phenomenology
The strengths and weaknesses of Fourier space
An overview of this chapter
The governing equations of isotropic turbulence
Kinematics
Dynamics
Overcoming the closure problem
The dynamics of the large scales
Loitsyansky's integral
Kolmogorov's decay laws
Landau's angular momentum
Batchelor's pressure forces
The Saffman-Birkhoff spectrum
A reappraisal of the long-range pressure forces in E-k[superscript 4] turbulence
The characteristic signature of eddies of different shape
Townsend's model eddy
Other model eddies
Intermittency in the inertial-range eddies
A problem for Kolmogorov's theory?
The [beta]-model of intermittency
The log-normal model of intermittency
The distribution of energy and vorticity across the different eddy sizes
A 'real-space' function which represents, approximately, the distribution of energy
Cascade dynamics in real space
A 'real-space' function which represents, approximately, the distribution of enstrophy
A footnote: can we capture Richardson's vision with our mathematical analysis?
Turbulence composed of Townsend's model eddy
The role of numerical simulations
What is DNS or LES?
Direct numerical simulation
Large eddy simulations
On the dangers of periodicity
Structure in chaos
Tubes, sheets, and cascades
On the taxonomy of worms
Structure and intermittency
Shear flows
Postscript
Isotropic turbulence (in spectral space)
Kinematics in spectral space
The Fourier transform and its properties
The Fourier transform as a filter
The autocorrelation function
The transform of the correlation tensor and the three-dimensional energy spectrum
One-dimensional energy spectra
Relating the energy spectrum to the second-order structure function
A footnote: singularities in the spectrum arising from anisotropy
Another footnote: the transform of the velocity field
Definitely the last footnote: what do E(k) and E[subscript 1](k) really represent?
Dynamics in spectral space
An evolution equation for E(k)
Closure in spectral space
Quasi-Normal type closure schemes (Part 2)
Special topics
The influence of rotation, stratification, and magnetic fields on turbulence
The importance of body forces in geophysics and astrophysics
The influence of rapid rotation and stable stratification
The Coriolis force
The Taylor-Proudman theorem
Properties of inertial waves
Turbulence in rapidly rotating systems
Turbulence with moderate rotation
From rotation to stratification (or from cigars to pancakes)
The influence of magnetic fields I--the MHD equations
The interaction of moving conductors and magnetic fields: a qualitative overview
From Maxwell's equations to the governing equations of MHD
Simplifying features of low magnetic Reynolds number MHD
Simple properties of high magnetic Reynolds number MHD
The influence of magnetic fields II--MHD turbulence
The growth of anisotropy in MHD turbulence
The evolution of eddies at low magnetic Reynolds number
The Landau invariant for homogeneous MHD turbulence
Decay laws at low magnetic Reynolds number
Turbulence at high magnetic Reynolds number
The combined effects of Coriolis and Lorentz forces
The shaping of eddies by Coriolis and magnetic forces
Turbulence in the core of the earth
Turbulence near the surface of the sun
Two-dimensional turbulence
The classical picture of two-dimensional turbulence: Batchelor's self-similar spectrum
What is two-dimensional turbulence?
What does the turbulence remember?
Batchelor's self-similar spectrum
The inverse energy cascade of Batchelor and Kraichnan
Different scales in two-dimensional turbulence
The shape of the energy spectrum: the k[superscript -3] law
Problems with the k[superscript -3] law
A Richardson-type law for the inertial range
Coherent vortices: a problem for the classical theory
The evidence
The significance
The governing equations in statistical form
Correlation functions, structure functions, and the energy spectrum
The two-dimensional Karman-Howarth equation and its consequences
Loitsyansky's integral in two dimensions
Variational principles for predicting the final state in confined domains
Minimum enstrophy
Maximum entropy
Quasi-two-dimensional turbulence: bridging the gap with reality
The governing equations for shallow-water, rapidly rotating flow
Karman-Howarth equation for shallow-water, rapidly rotating turbulence
Epilogue
Appendices
Vector identities and an introduction to tensor notation
Vector identities and theorems
An introduction to tensor notation
The properties of isolated vortices: invariants, far-field properties, and long-range interactions
The far-field velocity induced by an isolated eddy
The pressure distribution in the far field
Integral invariants of an isolated eddy
Long-range interactions between eddies
Long-range pressure forces in isotropic turbulence
A dynamic equation for the pressure-induced, long-range correlations
Experimental evidence for the strength of long-range pressure forces